Algal Research Group, Department of Structural and Molecular Biology, University College London, Gower Street, London WC1E 6BT, UK.
Department of Life Sciences, University of Westminster, 115 New Cavendish St., London W1W 6UW, UK.
Biotechnol Adv. 2022 Oct;59:107946. doi: 10.1016/j.biotechadv.2022.107946. Epub 2022 Mar 19.
Establishing the first human presence on Mars will be the most technically challenging undertaking yet in the exploration beyond our planet. The remoteness of Mars from Earth, the inhospitable surface conditions including low atmospheric pressure and cold temperatures, and the need for basic resources including water, pose a formidable challenge to this endeavour. The intersection of multiple disciplines will be required to provide solutions for temporary and eventually permanent Martian habitation. This review considers the role cyanobacteria and eukaryotic microalgae (collectively referred to here as 'microalgae') may have in supporting missions to the red planet. The current research using these microorganisms in biological life support systems is discussed, with a systematic analysis of their usage in each system conducted. The potential of microalgae to provide astronauts with oxygen, food, bio-polymers and pharmaceuticals is considered. An overview of microalgal experiments in space missions across the last 60 years is presented, and the research exploring the technical challenges of cultivation on Mars is discussed. From these findings, an argument for culturing microalgae in subterranean bioreactors is proposed. Finally, future synthetic biology approaches for enhancing the cyanobacterial/microalgal role in supporting human deep-space exploration are presented. We show that microalgae hold significant promise for providing solutions to many problems faced by the first Martian settlers, however these can only be realised with significant infrastructure and a reliable power source.
在火星上建立人类存在将是我们探索地球以外星球的最具挑战性的任务。火星距离地球遥远,表面条件恶劣,包括低气压和低温,以及对水等基本资源的需求,这些都对这项任务构成了巨大的挑战。需要多个学科的交叉来为火星的临时和最终永久居住提供解决方案。这篇综述探讨了蓝细菌和真核微藻(统称为“微藻”)在支持火星任务中的作用。讨论了目前在生物生命支持系统中使用这些微生物的研究,并对每个系统中的使用进行了系统分析。考虑了微藻为宇航员提供氧气、食物、生物聚合物和药物的潜力。介绍了过去 60 年中在太空任务中进行的微藻实验概述,并讨论了探索在火星上培养的技术挑战的研究。根据这些发现,提出了在地下生物反应器中培养微藻的建议。最后,提出了用于增强蓝细菌/微藻在支持人类深空探索中的作用的未来合成生物学方法。我们表明,微藻为解决第一批火星定居者面临的许多问题提供了很大的希望,但这只有在有可靠的基础设施和电源的情况下才能实现。
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