Application of ultrasonic surface treatment technologies in metals and alloys additive manufacturing

S. Voloshko, A. Burmak, A. Orlov, M. Voron
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Abstract

In a modern world, additive manufacturing of metal products has reached significant volumes and variety of applied alloys. 3D-printing technologies make it possible to obtain parts with reduced mass, increased reliability, single products, experimental parts and elements designs with complex geometry and configuration. Disadvantages of metal parts additive manufacturing include anisotropy of chemical composition and properties, non-equilibrium structural-phase state, structural micro- and macrodefects and some other features, that require post-processing of as-printed products. Most often, heat treatment and its combination with microforging or intensive surface plastic deformation are used for this purpose. The manuscript provides an analytical review of the advantages of using ultrasonic technologies to support 3D-printing and post-processing of additively manufactured products. Special attention is paid to ultrasonic impact treatment (UIT). The equipment for providing UIT is compact, energy-saving and easy to use. It is noted, that this technology makes it possible to effectively reduce surface defects of printed parts, increase its hardness and fatigue strength. At the same time, nanostructuring and changes in the structural and phase state of the modified layers are also occured. It is also noted, that UIT may provide surface strengthening to a depth of ~500 μm, saturating it with alloying elements and compounds, and for conventionally produced parts, like as–cast, deformed and powder sintered – it is significantly more effective than most other similar methods. The prospects of using ultrasonic technologies to improve quality and level of operational and mechanical characteristics of additively manufactured metal parts, including the needs of aircraft construction, are outlined. Keywords: additive technologies, 3D-printing, ultrasonic impact treatment, UIT, surface strengthening, cavitation, vibration polishing, fatigue strength, Grade5, AlSi10Mg, Inconel-718.
超声波表面处理技术在金属和合金增材制造中的应用
在当今世界,金属产品的增材制造已达到相当大的规模,应用的合金种类也越来越多。三维打印技术可以获得质量更小、可靠性更高的零件、单一产品、实验零件以及具有复杂几何形状和配置的元件设计。金属零件增材制造的缺点包括化学成分和性能的各向异性、非平衡结构相态、结构微观和宏观缺陷以及其他一些需要对打印后产品进行后处理的特征。为此,通常采用热处理及其与微锻造或强化表面塑性变形相结合的方法。该手稿分析了使用超声波技术来支持三维打印和增材制造产品后处理的优势。其中特别关注超声波冲击处理(UIT)。提供 UIT 的设备结构紧凑、节能且易于使用。这项技术可以有效减少印刷部件的表面缺陷,提高其硬度和疲劳强度。同时,改性层的纳米结构和相态也会发生变化。我们还注意到,UIT 可使表面强化深度达到约 500 μm,并使合金元素和化合物达到饱和,对于传统生产的零件,如铸造、变形和粉末烧结,其效果明显优于大多数其他类似方法。本文概述了使用超声波技术提高增材制造金属零件的质量和操作水平以及机械特性的前景,包括飞机制造的需求。关键词:快速成型技术、3D 打印、超声波冲击处理、UIT、表面强化、空化、振动抛光、疲劳强度、Grade5、AlSi10Mg、Inconel-718。
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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