Investigation of Generatively Manufactured Components in a Sealed Welding Chamber Using the Tungsten Inert Gas Hot Wire Process

IF 3.3 Q2 ENGINEERING, MANUFACTURING
Silvia Imrich, K. Treutler, V. Wesling
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Abstract

To produce additively manufactured components, various process advantages can be combined by using the tungsten inert gas (TIG) hot wire process with ohmic wire preheating. Unlike other various gas metal arc welding processes, with TIG, it is possible to influence the material properties by decoupling the energy supply and the welding filler material. Compared to the conventional TIG cold wire process, the hot wire process can achieve an increased deposition rate. To be able to use this combined process for the manufacturing of filigree components consisting of steel and titanium alloys, a system concept with a hermetically sealed welding chamber was developed. This concept is particularly designed for an individual use and is also intended to be used for producing prototypes and small quantities. In the investigations, the application of the TIG hot wire process is explored, regarding the material properties to be achieved in combination with the manufacturing plant concept developed with a sealed welding chamber. In this context, the mechanical-technological properties and detailed microstructural analyses are determined based on selected welding tests to evaluate and further develop the quality of the components produced. A final transfer of the findings to the process behavior by optimizing the interaction of the process parameters considered should lead to an increase in productivity, robustness, and reproducibility. The experimental setup’s potential for applicability in the field of additive manufacturing will be demonstrated based on this elaboration.
在密封焊接室中使用钨极惰性气体热丝焊接工艺对世代相传的制造部件进行研究
为生产增材制造部件,可通过使用带欧姆焊丝预热的钨极惰性气体(TIG)热焊丝工艺将各种工艺优势结合起来。与其他各种气体金属弧焊工艺不同,钨极惰性气体保护焊(TIG)可以通过解耦能源供应和焊接填充材料来影响材料特性。与传统的 TIG 冷丝工艺相比,热丝工艺可以提高熔敷率。为了能够将这种组合工艺用于制造由钢和钛合金组成的丝状部件,我们开发了一种带有密封焊接室的系统概念。这一概念专为个人使用而设计,也可用于生产原型和小批量产品。在研究中,对氩弧焊热丝工艺的应用进行了探讨,探讨了与密封焊接室制造设备概念相结合所要达到的材料特性。在此背景下,根据选定的焊接测试确定机械技术性能和详细的微观结构分析,以评估和进一步提高所生产部件的质量。通过优化所考虑的工艺参数之间的相互作用,最终将研究结果转化为工艺行为,从而提高生产率、稳健性和可重复性。实验装置在增材制造领域的应用潜力将在此基础上得到证明。
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
Journal of Manufacturing and Materials Processing
Journal of Manufacturing and Materials Processing Engineering-Industrial and Manufacturing Engineering
CiteScore
5.10
自引率
6.20%
发文量
129
审稿时长
11 weeks
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