USE OF METHANE IN CLOSED-LOOP LIFE SUPPORT SYSTEMS FOR SPACE MISSIONS

Alexandr G. Zheleznyakov, A. Guzenberg, S. Romanov, Alexey V. Yurgin, A. M. Ryabkin, Sergey Glukhikh
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引用次数: 2

Abstract

The paper discusses the use of methane (generated in the process of oxygen recovery from carbon dioxide released by the crew during its hydrogenation in the Sabatier reaction, with subsequent extraction of 61% of oxygen through electrolysis of the resultant water) in a regenerative life support system for crews on space missions. It demonstrates that the methane resulting from Sabatier reaction can be used both for pyrolysis in order to return the resulting hydrogen into this reaction so as to extract 100% of oxygen from carbon dioxide, and for producing food protein for life support in space. The use of methane pyrolysis was enabled by new technologies which allowed lowering the process temperature down to 500–700°C and obtaining the easy-to-remove carbon. It provides recommendations for designing space systems for methane pyrolysis. The paper makes the case for use of the existing processes for industrial production of protein from methane using methanotrophic bacteria in the production of food protein for space food rations, determines the balance of a closed-loop methanotrophic reaction, provides calculation basis and recommendations for designing space systems for methanotrophic production of food protein. Development of a system for food protein production from methane will enable its use as one of the systems for providing food on the Moon and Mars, as well as a backup system in space transportation missions. Key words: space missions, crew life support, СО2 hydration, methane pyrolysis, methanotrophic bacteria, food protein.
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甲烷在太空任务闭环生命维持系统中的应用
本文讨论了甲烷(在萨巴蒂尔反应中,宇航员释放的二氧化碳在加氢过程中产生的氧气回收过程中产生的,随后通过电解生成的水提取61%的氧气)在太空任务中宇航员的再生生命维持系统中的使用。这表明,Sabatier反应产生的甲烷既可以用于热解,使生成的氢气返回到该反应中,从而从二氧化碳中提取100%的氧气,也可以用于生产食物蛋白质,以维持太空中的生命。新技术使甲烷热解的使用成为可能,这些技术可以将工艺温度降低到500-700°C,并获得易于去除的碳。为甲烷热解空间系统的设计提供了建议。本文以现有的甲烷产蛋白质工业工艺为例,利用甲烷营养菌生产空间口粮所需的食物蛋白质,确定了甲烷营养闭环反应的平衡,为甲烷营养生产食物蛋白质的空间系统设计提供了计算依据和建议。从甲烷中生产食物蛋白质的系统的开发将使其成为月球和火星上提供食物的系统之一,以及太空运输任务中的备用系统。关键词:航天任务,航天员生命维持,СО2水合作用,甲烷热解,甲烷营养菌,食物蛋白。
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