Global Trends of In-Situ Resource Utilization

Dong Young Rew
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Abstract

In contrast to the short-term nature of lunar missions in the past, lunar missions in new space era aim to extend the presence on the lunar surface and to use this capability for the Mars exploration. In order to realize extended human presence on the Moon, production and use of consumables and fuels required for the habitation and transportation using in-situ resources is an important prerequisite. The Global Exploration Roadmap presented by the International Space Exploration Coordination Group (ISECG), which reflects the space exploration plans of participating countries, shows the phases of progress from lunar surface exploration to Mars exploration and relates in-situ resource utilization (ISRU) capabilities to each phase. Based on the ISRU Gap Assessment Report from the ISECG, ISRU technology is categorized into in-situ propellant and consumable production, in-situ construction, in-space manufacturing, and related areas such as storage and utilization of products, power systems required for resource utilization. Among the lunar resources, leading countries have prioritized the utilization of ice water existing in the permanent shadow region near the lunar poles and the extraction of oxygen from the regolith, and are preparing to investigate the distribution of resources and ice water near the lunar south pole through unmanned landing missions. Resource utilization technologies such as producing hydrogen and oxygen from water by hydroelectrolysis and extracting oxygen from the lunar regolith are being developed and tested in relevant lunar surface analogue environments. It is also observed that each government emphasizes the use and development of the private sector capabilities for sustainable lunar surface exploration by purchasing lunar landing services and providing opportunities to participate in resource exploration and material extraction.
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原位资源利用的全球趋势
与过去月球任务的短期性质不同,新空间时代的月球任务旨在扩大在月球表面的存在,并利用这种能力进行火星探测。为了实现人类在月球上的长期存在,利用当地资源生产和使用居住和运输所需的消耗品和燃料是一个重要的先决条件。国际空间探索协调小组(ISECG)提出的全球探索路线图反映了参与国的空间探索计划,显示了从月球表面探测到火星探测的进展阶段,并将每个阶段的就地资源利用(ISRU)能力联系起来。根据ISECG的ISRU差距评估报告,ISRU技术分为原位推进剂和消耗品生产、原位施工、空间制造以及产品存储和利用、资源利用所需的动力系统等相关领域。在月球资源方面,主要国家已优先利用月球两极附近永久阴影区存在的冰水和从风化层中提取氧气,并准备通过无人登陆任务研究月球南极附近的资源和冰水分布。正在开发并在月球表面相关模拟环境中测试水电解制氢、制氧和从月球风化层中提取氧气等资源利用技术。报告还指出,各国政府都强调利用和发展私营部门的能力,通过购买登月服务和提供参与资源勘探和物质开采的机会,实现可持续的月球表面探测。
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