原子氧
温度循环
航天器
聚合物
空间环境
近地轨道
材料科学
工作(物理)
抗剪强度(土壤)
热的
轨道(动力学)
氧气
航空航天工程
复合材料
化学
物理
环境科学
热力学
卫星
工程类
有机化学
地球物理学
土壤水分
土壤科学
作者
Ruiqiong Zhai,Xiaoning Yang,Lixiang Jiang,Hong Gao,Yuxin Zhang,Zilong Jiao
出处
期刊:Heliyon
[Elsevier BV]
日期:2023-07-05
卷期号:9 (8): e17431-e17431
被引量:2
标识
DOI:10.1016/j.heliyon.2023.e17431
摘要
Polymer-matrixed materials are widely used in the spacecrafts' structures. However, crafts located in the LEO(Low Earth Orbit) would suffer from hazardous environment factors when orbiting in the space. It has been reported that the space environment factors' integral effect (which represents the factual detriment in space) is not equivalent to the simple summation of each individual. Hence, atomic oxygen and thermal cycling were selected as the starting point for studying the typical LEO synergistic effects on polymer-matrixed space material. In this work, methods such as surface morphology observation, surface components analyzation and inter-laminar-shear strength test were embraced to gather the basic information for the study of degradation. As a result, focusing on the composites selected in this work, synergistic effects do exist between the two factors (AO&TC, representing for atomic oxygen and thermal cycling combined). Besides, a quantified index was proposed to represent synergistic characteristics,so as to lay the foundation for the scientific evolution of material characterization.
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