Research Gaps and Opportunities in Sensor-Based Medical Exploration Capabilities in Extravehicular Astronaut Suits

M. Morrison, Rodrick W. Rogers, Karanvir Singh, B. Harper, Francisco Sanchez, Olivia Williams, Travis J. Williams, Ryan J. Mays, Chenye Li, J. Arnold, Georgia Haggard, H. Smith, Erica Sims, L. Parrish, M. Valliant, John Ralston
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引用次数: 3

Abstract

NASA’s Human Research Program has identified the need to improve their capability to predict estimated medical risks during exploration missions, as well as the need to provide computed medical decision support while minimizing medical resource utilization. From May 2017 through October 2017, a research team with the University of Mississippi Electrical Engineering Department conducted interviews with a dozen NASA personnel from the Human Research Program, Life Support Systems Technology Development, Game Changing Development Program, the Wyle Science, Technology and Engineering Group, and MEI Technologies. This report outlines the challenges and gaps identified as a result of these interviews in the Human Research Roadmap towards implementing a sensor-based medical monitoring system in EVA suits, as well as the opportunities in pursuing solutions towards these challenges. We describe the knowledge gaps in determining a clear definition for which measurable EVA suit environment and astronaut medical conditions are mission critical. We detail the current principle and special challenges of monitoring mission critical measurables in micro-gravity and zero-gravity environments with respect to their sensing ability. We then propose a three-stage research framework for meeting these objectives that is robust in scope, yet partitioned such that innovations or setbacks in one stage will not unduly harm progress. First, identifying a set mission critical measurable will enable innovations in sensor networks in EVA suits. We discuss proposed approaches to monitoring astronaut health and environments and relevant gaps. The second stage is using data from the sensor network as inputs to algorithms for determining when mission-critical parameters have been violated, as well as priorities for reporting that information. The third research area focuses on secure and reliable delivery of sensor information to the IV crewmembers, along with rendering of mission-critical information in a Heads-Up Display (HUD) worn by the astronaut. We discuss the current status of HUD technology in EVA suits and the challenges towards advancing that technology for mission deployment. We also discuss challenges in how the astronaut and IV crewmembers will utilize logged health and tracking information operationally. Finally, the status of the work already conducted under the proposed research framework is discussed.
基于传感器的舱外太空服医学探测能力的研究差距与机遇
NASA的人类研究计划已经确定需要提高他们在探索任务期间预测估计医疗风险的能力,以及在最大限度地减少医疗资源利用率的同时提供计算医疗决策支持的需求。从2017年5月到2017年10月,密西西比大学电气工程系的一个研究小组对来自人类研究计划、生命支持系统技术开发、改变游戏规则开发计划、Wyle科学、技术和工程小组以及MEI技术的十几名NASA人员进行了采访。本报告概述了通过这些访谈确定的挑战和差距,这些挑战和差距体现在实施基于传感器的EVA医疗监测系统的人类研究路线图中,以及寻求解决这些挑战的机会。我们描述了在确定可测量的EVA宇航服环境和宇航员医疗条件对任务至关重要的明确定义方面的知识差距。我们详细介绍了在微重力和零重力环境中监测关键任务可测量物的传感能力的当前原理和特殊挑战。然后,我们提出了一个三阶段的研究框架,以满足这些目标,该框架在范围上是稳健的,但划分这样的创新或挫折在一个阶段不会过度损害进步。首先,确定一组关键任务可测量值将使EVA宇航服的传感器网络创新成为可能。我们讨论了监测宇航员健康和环境的拟议方法以及相关差距。第二阶段是使用来自传感器网络的数据作为算法的输入,以确定何时违反了关键任务参数,以及报告该信息的优先级。第三个研究领域侧重于安全可靠地向IV机组人员传递传感器信息,以及在宇航员佩戴的平视显示器(HUD)上呈现关键任务信息。我们讨论了舱外航天服中HUD技术的现状以及在任务部署中推进该技术所面临的挑战。我们还讨论了宇航员和IV机组人员如何在操作上利用记录的健康和跟踪信息方面的挑战。最后,讨论了在提出的研究框架下已经开展的工作的现状。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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