Integration of an Earth-based science team during human exploration of Mars

S. Chappell, K. Beaton, Carolyn E Newton, T. Graff, K. Young, D. Coan, A. Abercromby, M. Gernhardt
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引用次数: 7

Abstract

NASA Extreme Environment Mission Operations (NEEMO) is an underwater spaceflight analog that provides a true mission-like operational environment for aquanauts living in the Aquarius undersea habitat for up to several weeks at a time. During these analog missions, aquanauts go out on multi-hour extravehicular activities (EVAs) and use buoyancy effects and added weight to simulate different gravity levels. The NEEMO 21 mission was undertaken in July of 2016. During this mission, the effects of several operations concepts (ConOps, defined as operational design elements that guide the organization and flow of hardware, personnel, communications, and data products through the course of a mission implementation) and a communication latency of 15 min oneway light time (OWLT) were studied in six aquanaut test subjects. These “Mars” aquanaut crewmembers conducted scientific exploration of the reef surrounding the Aquarius habitat while interacting with an “Earth-based” science team (ST) that was located topside. The ST provided guidance to the aquanauts throughout the EVAs across the 15 min communication latency. Exploration EVA traverses and timelines were planned in advance based on precursor data. During these 4-hr EVAs, the aquanauts completed science-related tasks, including pre-sampling surveys and marine-science-based sampling. Objective data included task completion times, total EVA time, crew idle time, translation time, ST-assimilation time (defined as time available for the ST to discuss, review, and act upon incoming data from the aquanauts). Subjective data included acceptability, simulation quality, and capability assessment ratings and associated comments. Additionally, feedback from both the crew and the ST were captured during the post-mission debrief. Each ConOps tested was found to provide advantages and disadvantages and it is likely that each will be used during the exploration of Mars. The choice of ConOps for Mars' EVAs will likely be dependent on the science objectives of that EVA balanced with the associated operational costs (such as human and rover transport cost).
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在人类探索火星期间整合地球科学团队
美国宇航局极端环境任务操作(NEEMO)是一种水下航天模拟,为生活在水瓶座海底栖息地的宇航员提供了一个真正的类似任务的操作环境,一次可长达数周。在这些模拟任务中,宇航员会进行数小时的舱外活动(eva),并利用浮力效应和增加的重量来模拟不同的重力水平。NEEMO 21任务于2016年7月开始。在这次任务中,在六个水下测试对象中研究了几个操作概念(ConOps,定义为在任务实施过程中指导硬件、人员、通信和数据产品的组织和流动的操作设计元素)和15分钟单向光时间(OWLT)的通信延迟的影响。这些“火星”宇航员对水瓶座栖息地周围的珊瑚礁进行了科学探索,同时与位于顶部的“地球”科学团队(ST)进行了互动。在整个EVAs过程中,ST在15分钟的通信延迟期间为潜航员提供指导。根据前体数据,提前规划了探索EVA穿越和时间线。在这4小时的EVAs期间,潜水人员完成了与科学相关的任务,包括预采样调查和海洋科学采样。客观数据包括任务完成时间、总EVA时间、机组人员空闲时间、转换时间、ST同化时间(定义为ST讨论、审查和对来自水人员的传入数据采取行动的可用时间)。主观数据包括可接受性、模拟质量、能力评估等级和相关评论。此外,在任务后的汇报中,机组人员和ST的反馈都被捕获了。经过测试的每一种ConOps都有各自的优点和缺点,很可能会在火星探测中使用。火星EVA的ConOps选择可能取决于EVA的科学目标与相关运营成本(如人员和漫游者运输成本)的平衡。
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