金属材料的等离子体金属沉积

Enrique Ariza Galván, Isabel Montealegre Meléndez, Cristina Arévalo Mora, Eva María Pérez Soriano, E. Neubauer, M. Kitzmantel
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摘要

等离子体金属沉积(PMD®)是一种基于等离子体作为能量源的金属增材制造的有前途和经济的直接能量沉积技术。该工艺允许使用粉末,线材或两者结合作为原料材料,以创建具有高沉积速率(即10 kg/h)的近净形状大尺寸组件(即>1 m)。在已有的PMD®加工材料中,脱颖而出的是耐高温镍基合金、工业中常用的各种钢和不锈钢、航空航天领域的钛合金和轻质合金。此外,使用粉末作为原料也允许生产金属基复合材料与广泛的材料增强。本章介绍了PMD®技术的特点,影响增材制造的焊接参数,不同制造材料的例子,以及新兴PMD®技术的挑战和发展。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Plasma Metal Deposition for Metallic Materials
Plasma metal deposition (PMD®) is a promising and economical direct energy deposition technique for metal additive manufacturing based on plasma as an energy source. This process allows the use of powder, wire, or both combined as feedstock material to create near-net-shape large size components (i.e., >1 m) with high-deposition rates (i.e., 10 kg/h). Among the already PMD® processed materials stand out high-temperature resistance nickel-based alloys, diverse steels and stainless steels commonly used in the industry, titanium alloys for the aerospace field, and lightweight alloys. Furthermore, the use of powder as feedstock also allows to produce metal matrix composites reinforced with a wide range of materials. This chapter presents the characteristics of the PMD® technology, the welding parameters affecting additive manufacturing, examples of different fabricated materials, as well as the challenges and developments of the rising PMD® technology.
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