Processability of aluminum-matrix composite (AMC) by ultrasonic powder atomization

A. Jedynak
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Abstract

Abstract. This research presents a comprehensive study on the production of aluminum-matrix composite (AMC) powders using ultrasonic atomization for additive manufacturing (AM). The impact of different heat sources—plasma, arc, and induction melting—was evaluated on the processability and resultant properties of the AMC powders, including morphology, size, and composite structure. Additionally, induction melting was considered in terms of process parameters such as pressure difference, nozzle size, and frequency. The analysis of AMC powder processability revealed that the efficiency of the ultrasonic process depended on the selected heat source. The highest efficiency, nearly 50%, was attained with the induction system. All produced AMC powders exhibited high sphericity, with average sizes ranging from 88.2 to 120 µm. However, the desired composite structure was not achieved under tested conditions due to the decrease in SiC particle content from 20% in the feed material to approximately 3.5% in the final AMC powder. Based on these results, the research highlights the potential and limitations of ultrasonic atomization in AMC powder production, emphasizing the need for further optimization to improve powder quality and process efficiency for broader industrial application in AM.
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超声波粉末雾化铝基复合材料 (AMC) 的加工性能
摘要本研究全面介绍了利用超声波雾化技术生产铝基复合材料(AMC)粉末用于增材制造(AM)的情况。研究评估了不同热源(等离子、电弧和感应熔化)对 AMC 粉末的加工性和最终特性(包括形态、尺寸和复合结构)的影响。此外,还考虑了感应熔化的工艺参数,如压差、喷嘴尺寸和频率。对 AMC 粉末可加工性的分析表明,超声波工艺的效率取决于所选的热源。感应系统的效率最高,接近 50%。所有生产出的 AMC 粉末都具有较高的球形度,平均尺寸在 88.2 到 120 微米之间。然而,在测试条件下,由于碳化硅颗粒含量从进料中的 20% 降至最终 AMC 粉末中的约 3.5%,因此未能实现理想的复合结构。基于这些结果,研究强调了超声波雾化在 AMC 粉末生产中的潜力和局限性,强调需要进一步优化,以提高粉末质量和工艺效率,从而在 AM 中实现更广泛的工业应用。
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