Metal Alloys for Filaments in 3D Fusion Filament Modelling Printing Process

Q4 Engineering
M. Ciornei, I. Savu, S. Savu
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引用次数: 0

Abstract

The paper presents experimental research regarding the application of specific low melting metals in the FDM process. Previous trends in the transfer of the filament from the spool to the hot-end showed that the filament undergoes specific mechanical stress during the transfer. To achieve an appropriate transfer the filament should prove stiffness and resistance to the mechanical actions of the transfer wheels. At the same time, the entrance to the hot-end creates specific resistance to the movement of the filament, and the filament undergoes important deformations. The experimental research used three materials characterized by melting temperature below 260oC: Sn-58Bi, Sn-9Zn, and Sn-3.5Ag. Sn-58Bi showed a yield stress above 50 MPa, but very low extension during the tensile test. Sn-9Zn exhibited a yield stress above 30 MPa, and about double the extension during the tensile test. Sn-3.5Ag displayed a yield stress above 25 MPa, and extension in excess of 8%. The analysis of the surface was performed, revealing that the increase of the yield stress influenced the appearance of specific prints given by the transfer wheels. The deepest prints were measured for Sn-3.5Ag and they were maximum 100 μm. The other two materials were stiffer and the prints have depths below 50 μm. According to the obtained results, each of the tested materials can be an appropriate solution to filament use for the FDM 3D printing process.
金属合金长丝在3D熔丝建模打印过程
本文对特定低熔点金属在FDM工艺中的应用进行了实验研究。以前的趋势在转移的长丝从线轴到热端表明,长丝经历特定的机械应力在转移过程中。为了实现适当的转移,灯丝应该证明刚度和抵抗转移轮的机械作用。同时,热端入口对灯丝的运动产生特定的阻力,灯丝会发生重要的变形。实验研究采用熔点在260℃以下的三种材料:Sn-58Bi、Sn-9Zn和Sn-3.5Ag。Sn-58Bi在拉伸试验中屈服应力大于50 MPa,但延伸率很低。Sn-9Zn在拉伸试验中屈服应力大于30 MPa,延伸量约为原来的2倍。Sn-3.5Ag的屈服应力大于25 MPa,延伸率大于8%。对表面进行了分析,表明屈服应力的增加影响了传递轮给出的特定印痕的外观。Sn-3.5Ag的印迹最深,印迹最大可达100 μm。另外两种材料较硬,打印深度在50 μm以下。根据所获得的结果,每种测试材料都可以作为合适的长丝解决方案用于FDM 3D打印工艺。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
CiteScore
0.80
自引率
0.00%
发文量
1
审稿时长
16 weeks
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