Pioneering the Approach to Understand a Trash-to-Gas Experiment in a Microgravity Environment

A. Meier, D. Rinderknecht, Joel A. Olson, M. Shah, Jaime A. Toro Medina, R. Pitts, R. Carro, J. Gleeson, J. Hochstadt, Evan A. Bell, Emily A. Forrester, M. Kruger, Deborah Essumang
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Abstract

Abstract The Orbital Syngas/Commodity Augmentation Reactor (OSCAR) project investigated hardware and engineering development for waste conversion operations related to trash deconstruction and repurposing for long duration space missions. Operations of the trash-to-gas system were investigated to compare microgravity (μg) and Earth gravity environments. The OSCAR system has been demonstrated in other μg platforms, but here the performance and results on the Blue Origin New Shepard Suborbital Vehicle are discussed. The OSCAR suborbital operation demonstrated the introduction of trash into a high temperature reactor for solid to gas conversion, ignition of mixed trash feedstock, combustion during μg, and subsequent gas collection processes in a flight automated sequence. An oxygen (O2)- and steam-rich environment was created within the reactor for ignition conditions, and the product gases were quantified to verify the reaction product composition. This paper focuses on the chemistry processes of the reactor, and gas and solid product analysis of the μg and gravity conditions. The gas production, reactor thermal profile, and mass and carbon conversion results validated confidence in the system design to continue the advancement of this technology for future spaceflight implementations.
开创了理解微重力环境下垃圾变气体实验的方法
轨道合成气/商品增强反应堆(OSCAR)项目研究了与垃圾解构和长时间太空任务重新利用相关的废物转化操作的硬件和工程开发。研究了垃圾制气系统的运行情况,比较了微重力环境和地球重力环境。OSCAR系统已经在其他平台上进行了演示,但这里讨论的是在蓝色起源新谢泼德亚轨道飞行器上的性能和结果。OSCAR亚轨道运行演示了将垃圾引入高温反应器进行固气转化、混合垃圾原料点火、μg过程中的燃烧以及随后在飞行自动化序列中的气体收集过程。在反应器内创造了一个富氧和富蒸汽的点火环境,并对产物气体进行了量化,以验证反应产物的组成。本文重点介绍了反应器的化学过程,以及气固产物的μg和重力条件分析。气体产量、反应堆热剖面、质量和碳转化结果验证了系统设计的信心,可以继续推进该技术在未来太空飞行中的应用。
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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