用增材制造的无焊电子模块的振动测试

G. Vărzaru, Razvan Ungurelu, M. Branzei, B. Mihailescu, C. Ionescu, P. Svasta
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引用次数: 0

摘要

提出了一种不使用焊料合金的增材制造电子模块的新方法。其结果是一个由由导电材料连接的树脂嵌入电子元件的叠加层组成的实体。其声明的目的是提高电子设备的可靠性,但由于该过程的新颖性,很少有论文涉及这一主题。本文首次对这种结构在机械应力作用下的行为进行了实验研究。众所周知,电子产品最常见的机械应力是振动,但其参数因行业(航空航天,汽车,军事等)而异。关于振动测试,根据目的有几种类型:性能,耐久性,航运。我们的实验基于一个众所周知的标准MIL-STD-202G。测试模块是一个扁平的矩形板,由两层环氧树脂嵌入电子元件在菊花链电路中互连而成。测试和测量(光学检查,电气连续性)在振动之前,期间和之后进行。当提交到指定标准的方法201A的推荐程序时,没有可见的损坏和不可检测的电路中断证明了这种结构的稳健性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Vibration Testing of a Solderless Electronic Module Manufactured by Additive Technique
A new way of additively manufacturing electronic modules without the use of solder alloy was proposed. The result is a solid body consisting of superimposed layers of resin embedding electronic components interconnected by an electrically conductive material. Its stated purpose is to increase the reliability of electronics, but due to the novelty of the process, few papers are known to approach the subject. The paper is the first experimental study of the behavior of such a structure subject to mechanical stress. As known, the most common mechanical stress for electronics is vibration, but its parameters are different depending on the industry (aerospace, automotive, military, etc.). Regarding the vibration test, there are several types according to the purpose: performance, endurance, shipping. Our experiments were based on a well-known standard, MIL-STD-202G. The test module is a flat rectangular board made of two layers of epoxy resin embedding electronic components interconnected in a daisy-chain circuit. Tests and measurements (optical inspection, electrical continuity) were made before, during, and after vibrations. The lack of visible damage and undetectable interruption of the electrical circuitry is proof of the robustness of such structure when submitted to the recommended procedure from the Method 201A of the specified standard.
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