缩小行星保护知识差距,实现火星载人飞行任务。

IF 3.5 3区 物理与天体物理 Q2 ASTRONOMY & ASTROPHYSICS
Astrobiology Pub Date : 2024-03-01 DOI:10.1089/ast.2023.0092
James A Spry, Bette Siegel, Corien Bakermans, David W Beaty, Mary-Sue Bell, James N Benardini, Rosalba Bonaccorsi, Sarah L Castro-Wallace, David A Coil, Athena Coustenis, Peter T Doran, Lori Fenton, David P Fidler, Brian Glass, Stephen J Hoffman, Fathi Karouia, Joel S Levine, Mark L Lupisella, Javier Martin-Torres, Rakesh Mogul, Karen Olsson-Francis, Sandra Ortega-Ugalde, Manish R Patel, David A Pearce, Margaret S Race, Aaron B Regberg, Petra Rettberg, John D Rummel, Kevin Y Sato, Andrew C Schuerger, Elliot Sefton-Nash, Matthew Sharkey, Nitin K Singh, Silvio Sinibaldi, Perry Stabekis, Carol R Stoker, Kasthuri J Venkateswaran, Robert R Zimmerman, Maria-Paz Zorzano-Mier
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引用次数: 0

摘要

随着火星探索的重点从目前的机器人探测器过渡到载人飞行任务的开发,保护火星科学调查的完整性以及保护地球生物圈免受返回火星物质的任何潜在有害影响仍然十分重要。这就是行星保护学科,空间研究委员会(COSPAR)就如何实施这一学科制定了协商一致的国际政策和指导方针。根据美国国家航空航天局(NASA)和欧洲航天局(ESA)于 2001 年开始的研究,空间研究委员会于 2008 年通过了人类火星任务的原则和指导方针。当时,要从这些定性规定出发,显然需要与航天器设计者开展大量工作和互动,以提出有意义的量化建议,从而在此类任务的设计中体现《外层空间条约》(第九条)的意图。从 2016 年开始,COSPAR 发起了一个多年期跨学科系列会议,以解决行星保护 "知识差距"(KGs)问题,目的是调整和扩展当前以机器人任务为重点的行星保护政策,以支持载人和混合探索任务的设计和实施。本文介绍了跨学科 COSPAR 系列会议的成果,以描述和解决这些 KGs,并确定缩小差距的潜在途径。文章包括每个主题领域的背景科学基础以及系列会议结束后的知识更新。特别是针对以下三个主题领域描述了消除 KG 的可靠解决方案:(1) 航天器和乘员健康的微生物监测;(2) 火星上陆地微生物污染的自然迁移(和生存);(3) 航天器污染控制系统的技术和操作。文章包括一个关于这些主题领域的 KG 数据表,该表旨在作为一个出发点,以便今后在为载人火星飞行任务制定端到端行星保护要求实施方案方面取得进展。总之,系列讲习班为载人火星飞行任务实施行星保护的可行性提供了证据,因为(1)确定了地球生物污染所需的分区、排放、运输和生存参数,以及(2)创建了一种公认的基于风险的合规方法,供包括国家空间机构和商业/非政府组织在内的航天行为体采用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Planetary Protection Knowledge Gap Closure Enabling Crewed Missions to Mars.

As focus for exploration of Mars transitions from current robotic explorers to development of crewed missions, it remains important to protect the integrity of scientific investigations at Mars, as well as protect the Earth's biosphere from any potential harmful effects from returned martian material. This is the discipline of planetary protection, and the Committee on Space Research (COSPAR) maintains the consensus international policy and guidelines on how this is implemented. Based on National Aeronautics and Space Administration (NASA) and European Space Agency (ESA) studies that began in 2001, COSPAR adopted principles and guidelines for human missions to Mars in 2008. At that point, it was clear that to move from those qualitative provisions, a great deal of work and interaction with spacecraft designers would be necessary to generate meaningful quantitative recommendations that could embody the intent of the Outer Space Treaty (Article IX) in the design of such missions. Beginning in 2016, COSPAR then sponsored a multiyear interdisciplinary meeting series to address planetary protection "knowledge gaps" (KGs) with the intent of adapting and extending the current robotic mission-focused Planetary Protection Policy to support the design and implementation of crewed and hybrid exploration missions. This article describes the outcome of the interdisciplinary COSPAR meeting series, to describe and address these KGs, as well as identify potential paths to gap closure. It includes the background scientific basis for each topic area and knowledge updates since the meeting series ended. In particular, credible solutions for KG closure are described for the three topic areas of (1) microbial monitoring of spacecraft and crew health; (2) natural transport (and survival) of terrestrial microbial contamination at Mars, and (3) the technology and operation of spacecraft systems for contamination control. The article includes a KG data table on these topic areas, which is intended to be a point of departure for making future progress in developing an end-to-end planetary protection requirements implementation solution for a crewed mission to Mars. Overall, the workshop series has provided evidence of the feasibility of planetary protection implementation for a crewed Mars mission, given (1) the establishment of needed zoning, emission, transport, and survival parameters for terrestrial biological contamination and (2) the creation of an accepted risk-based compliance approach for adoption by spacefaring actors including national space agencies and commercial/nongovernment organizations.

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来源期刊
Astrobiology
Astrobiology 生物-地球科学综合
CiteScore
7.70
自引率
11.90%
发文量
100
审稿时长
3 months
期刊介绍: Astrobiology is the most-cited peer-reviewed journal dedicated to the understanding of life''s origin, evolution, and distribution in the universe, with a focus on new findings and discoveries from interplanetary exploration and laboratory research. Astrobiology coverage includes: Astrophysics; Astropaleontology; Astroplanets; Bioastronomy; Cosmochemistry; Ecogenomics; Exobiology; Extremophiles; Geomicrobiology; Gravitational biology; Life detection technology; Meteoritics; Planetary geoscience; Planetary protection; Prebiotic chemistry; Space exploration technology; Terraforming
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