(Keynote) Electrochemistry on Mars – Two Years of MOXIE (Mars Oxygen ISRU Experiment) Operations Producing Oxygen on the Surface of the Red Planet

Jeffrey A. Hoffman
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Abstract

By the time of the 243rd ECS, NASA’s Mars2020 Perseverance rover will have spent over two Earth years on the surface of Mars, during which time the MOXIE experiment ( M ars OX ygen I SRU E xperiment) will have produced oxygen at night and in the day during both the annual maximum and minimum atmospheric density periods, as well as at many other times during the year. MOXIE is the first demonstration of the use of indigenous resources (ISRU = In Situ Resource Utilization) on the surface of another planet. This talk will explain how MOXIE works and will present a summary of what MOXIE has accomplished, how its performance on Mars has changed with time, and plans for the future. The paper will also present results from an optimization study of a human-scale MOXIE-type system capable of providing the oxidizer for a 6–person Mars Ascent Vehicle. As an experiment carried inside the rover, MOXIE had to satisfy many constraints that would not apply to an independent, full-scale system. Other potential oxygen-producing technologies should be compared to the optimized human-scale system results summarized in this paper rather than to a simple linear scaling of the mass, power consumption, and oxygen production rate of MOXIE.
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(主题演讲)火星上的电化学-两年的MOXIE(火星氧气ISRU实验)操作在红色星球表面产生氧气
到第243次ECS时,美国宇航局的火星2020毅力号火星车将在火星表面度过两个地球年以上的时间,在此期间,MOXIE实验(火星氧I SRU E实验)将在每年最大和最小大气密度期间的夜间和白天以及一年中的许多其他时间产生氧气。MOXIE是在另一个星球表面利用本地资源(ISRU =就地资源利用)的第一次示范。这次演讲将解释MOXIE是如何工作的,并将总结MOXIE所取得的成就,它在火星上的表现是如何随着时间的推移而变化的,以及未来的计划。本文还将介绍一项人类规模的moxie型系统的优化研究结果,该系统能够为6人火星上升飞行器提供氧化剂。作为一项在漫游车上进行的实验,MOXIE必须满足许多不适用于独立的全尺寸系统的限制。其他潜在的产氧技术应该与本文总结的优化的人类尺度系统结果进行比较,而不是简单地按MOXIE的质量、功耗和产氧速率进行线性缩放。
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