航天器
微流星体
空间环境
极端紫外线
航空航天工程
数码产品
宇宙射线
原子氧
正方体卫星
计算机科学
天体生物学
环境科学
卫星
物理
系统工程
空间碎片
电气工程
工程类
天文
光学
激光器
氧气
量子力学
作者
Dionysios Tompros,Dionysios E. Mouzakis
标识
DOI:10.1177/15485129211033038
摘要
The space environment is extremely hostile to the spacecraft but also to the equipment it carries. The materials which are used to the external side of the spacecraft, the solar panels, the sensors, and the electronics circuits, suffer greatly from their exposure to it. Extreme temperatures, ultraviolet radiation, ionizing radiation from solar proton events and cosmic rays, atomic oxygen in LEO, as well as collisions with micrometeoroids and space debris are factors that degrade the stuff, multiply the mission cost, and increase the risk. Therefore, the state-of-art of material technology is needed. In this study, a set of materials and technologies are presented, which reduce the above-mentioned risks. Extreme temperatures, ultra-vacuum, atomic oxygen, and high-energy radiation including particles as well as energy sources (X- and gamma rays) are potential extreme exposure conditions. Testing and qualification of materials exposed to these extreme conditions is a difficult task, to enable the design and manufacturing of high-endurance reliable components to be used in the world’s most sophisticated satellite and spacecraft components, as well as in future endeavors into the vicinity of the Solar System.
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