科技报告详细信息
Utilizing Ionic Liquids to Enable the Future of Closed-Loop Life Support Technology
Brown, Brittany R ; Fox, Eric T ; Karr, Laurel J ; Stanley, Christine M ; Abney, Morgan B ; Donovan, Dave N ; Paley, Mark S ; McLeroy, Jesse L
关键词: ANODES;    CARBON;    CATHODES;    COMPUTER AIDED DESIGN;    ELECTROPLATING;    FEEDBACK CONTROL;    LIFE SUPPORT SYSTEMS;    REACTOR DESIGN;    CATALYSTS;    COATINGS;    ELECTRODES;    IN SITU RESOURCE UTILIZATION;    INTERNATIONAL SPACE STATION;    HIGH TEMPERATURE;    TEMPERATURE PROFILES;   
RP-ID  :  ICES-2018-38,M18-6698
学科分类:航空航天科学
美国|英语
来源: NASA Technical Reports Server
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【 摘 要 】

Current oxygen recovery technology onboard the International Space Station only recovers approximately 50% of the oxygen from metabolic carbon dioxide, thus requiring resupply mass in order to sustain life onboard. Future long duration manned missions will require maximum oxygen recovery in order to reduce resupply mass. Complete recovery of oxygen can be achieved through Bosch technology. The challenge with this technology is that the solid carbon produced during the process results in undesired catalyst resupply mass. Although there have been several approaches to solve this challenge, in order to totally eliminate the need for resupply only one potential process has been identified. This process is a fully-regenerable Ionic Liquid (IL)-based Bosch system that employs in situ resources. In 2016, efforts were made that proved the feasibility of an IL-based Bosch system. ILs were used to electroplate iron onto a copper substrate and to regenerate the iron by extracting the iron from the copper substrate and product carbon. In 2017, efforts were initiated to scale the proposed technology. Here we report the results of those efforts as well as an IL-based Bosch system concept and basic reactor design.

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