材料科学
光致聚合物
悬挂(拓扑)
体积热力学
冶金
3D打印
制造工艺
过程开发
金属
过程(计算)
制造工程
复合材料
工程类
计算机科学
聚合物
单体
同伦
量子力学
纯数学
数学
操作系统
物理
作者
Hoa Xuan Nguyen,Bibek Poudel,Zhiyuan Qu,Patrick Kwon,Haseung Chung
摘要
As the metal additive manufacturing (AM) field evolves with an increasing demand for highly complex and customizable products, there is a critical need to close the gap in productivity between metal AM and traditional manufacturing (TM) processes such as continuous casting, machining, etc., designed for mass production. This paper presents the development of the scalable and expeditious additive manufacturing (SEAM) process, which hybridizes binder jet printing and stereolithography principles, and capitalizes on their advantages to improve productivity. The proposed SEAM process was applied to stainless steel 420 (SS420) and the processing conditions (green part printing, debinding, and sintering) were optimized. Finally, an SS420 turbine fabricated using these conditions successfully reached a relative density of 99.7%. The SEAM process is not only suitable for a high-volume production environment but is also capable of fabricating components with excellent accuracy and resolution. Once fully developed, the process is well-suited to bridge the productivity gap between metal AM and TM processes, making it an attractive candidate for further development and future commercialization as a feasible solution to high-volume production AM.
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