Keller Ryan, Goli Karthik, Porter William, Alrabaa Aly, Jones Jeffrey A
Center for Space Medicine, Baylor College of Medicine, Houston, TX 77030, USA.
College of Natural Sciences and Mathematics, University of Houston, Houston, TX 77204, USA.
Life (Basel). 2023 Mar 17;13(3):816. doi: 10.3390/life13030816.
Exploring austere environments required a reimagining of resource acquisition and utilization. Cyanobacterial in situ resources utilization (ISRU) and biological life support system (BLSS) bioreactors have been proposed to allow crewed space missions to extend beyond the temporal boundaries that current vehicle mass capacities allow. Many cyanobacteria and other microscopic organisms evolved during a period of Earth's history that was marked by very harsh conditions, requiring robust biochemical systems to ensure survival. Some species work wonderfully in a bioweathering capacity (siderophilic), and others are widely used for their nutritional power (non-siderophilic). Playing to each of their strengths and having them grow and feed off of each other is the basis for the proposed idea for a series of three bioreactors, starting from regolith processing and proceeding to nutritional products, gaseous liberation, and biofuel production. In this paper, we discuss what that three reactor system will look like, with the main emphasis on the nutritional stage.
探索恶劣环境需要重新构想资源获取和利用方式。有人提出利用蓝细菌原位资源利用(ISRU)和生物生命支持系统(BLSS)生物反应器,以使载人太空任务能够超越当前运载工具质量容量所允许的时间界限。许多蓝细菌和其他微生物是在地球历史上一段以极端恶劣条件为特征的时期进化而来的,需要强大的生化系统来确保生存。一些物种在生物风化能力方面(嗜铁)表现出色,而其他物种则因其营养功效(非嗜铁)而被广泛利用。发挥它们各自的优势,让它们相互生长和依存,这就是所提出的一系列三个生物反应器构想的基础,该系列从风化层处理开始,进而生产营养产品、释放气体以及生产生物燃料。在本文中,我们将讨论这三个反应器系统的样子,主要侧重于营养阶段。