Mechanical analysis of multilayer composite materials with duroplastic matrix after exposure to low temperatures

A. Krzak, A.J. Nowak
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Abstract

Cryogenic engineering is gaining more and more interest in various industry sectors, which leads to an intensive search for effective solutions. The article presents the findings of mechanical testing conducted on glass-epoxy laminates at room temperature and after long-term contact with liquid nitrogen.To compare the impact properties and flexural strength, the samples were tested under cryogenic and room conditions, and then the fracture locations were identified using the Leica DVM6 microscope. The study brings value to the emerging field of cryogenic engineering by providing valuable information on the mechanical properties of glass-epoxy composites under cryogenic conditions.It has been found out that immersing the glass-epoxy composites into the Dewar had minimal influence on impact and flexural strength properties. The most noticeable changes were observed in the case of the EP_4_2 composite. The material consists of a solution of brominated epoxy resin in an organic solvent. It is used to produce laminates in electrical engineering and printed circuits in electronics, where it should exhibit excellent impact properties.One of the prospective research directions is a thorough analysis of the mechanical properties of the developed composite materials during cryogenic cycles.The study aims to determine the effect of different compositions of glass fabric-reinforced resin with a weight of 205 g/m2 on the mechanical properties of the developed composite materials at both room temperature and after long-term exposure to liquid nitrogen. Those investigations serve as surveillance for developing of new material solutions directed towards cryogenic applications and are essential for subsequent stages of research.
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低温下硬塑性多层复合材料的力学分析
低温工程越来越受到各个工业部门的关注,这导致了对有效解决方案的密集探索。本文介绍了玻璃环氧层压板在室温下和长期接触液氮后的力学性能测试结果。为了比较样品的冲击性能和抗弯强度,分别在低温和室温条件下进行了测试,然后使用徕卡DVM6显微镜确定了断裂位置。该研究为玻璃-环氧复合材料在低温条件下的力学性能提供了有价值的信息,为新兴的低温工程领域带来了价值。结果表明,将玻璃-环氧树脂复合材料浸泡在杜瓦瓶中对其冲击和弯曲强度的影响最小。在EP_4_2复合材料中观察到最显著的变化。该材料由溴化环氧树脂在有机溶剂中的溶液组成。它被用于制造电子工程中的层压板和电子产品中的印刷电路,在这些地方它应该表现出优异的冲击性能。深入分析所研制的复合材料在低温循环过程中的力学性能是未来研究的方向之一。该研究旨在确定重量为205 g/m2的玻璃纤维增强树脂的不同成分对所开发的复合材料在室温和长期暴露于液氮后的力学性能的影响。这些调查对开发针对低温应用的新材料解决方案起到监督作用,对后续研究阶段至关重要。
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来源期刊
Archives of materials science and engineering
Archives of materials science and engineering Materials Science-Materials Science (all)
CiteScore
2.90
自引率
0.00%
发文量
15
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