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碳水化合物来源于碳质陨石,改变了环境衍生的细菌病原体的免疫原性。

Growth on Carbohydrates from Carbonaceous Meteorites Alters the Immunogenicity of Environment-Derived Bacterial Pathogens.

机构信息

Department of Internal Medicine, Radboud University Medical Center, Nijmegen, Netherlands.

Radboud Center for Infectious Diseases, Radboud University Medical Center, Nijmegen, Netherlands.

出版信息

Astrobiology. 2020 Nov;20(11):1353-1362. doi: 10.1089/ast.2019.2173. Epub 2020 May 8.

DOI:10.1089/ast.2019.2173
PMID:32391711
Abstract

The last decade has witnessed a renewed interest in space exploration. Public and private institutions are investing considerable effort toward the direct exploration of the Moon and Mars, as well as more distant bodies in the solar system. Both automated and human-crewed spacecraft are being considered in these efforts. As inevitable fellow travelers on the bodies of astronauts, spaceships, or equipment, terrestrial microorganisms will undoubtedly come into contact with extraterrestrial environments, despite stringent decontamination. These microorganisms could eventually adapt and grow in their new habitats, where they might potentially recolonize and lead to the infection of the human space travelers. In this article, we demonstrate that clinically relevant bacterial species found in the environment are able to grow in minimal media with sugar compounds identified in extraterrestrial carbon sources. As a surrogate model, we used carbohydrates previously isolated from carbonaceous meteorites. The bacteria underwent an adaptation process that caused structural modifications in the cell envelope that sparked changes in pathogenic potential, both and . Understanding the adaptation of microorganisms exposed to extraterrestrial environments, with subsequent changes in their immunogenicity and virulence, requires a comprehensive analysis of such scenarios to ensure the safety of major space expeditions in the decades to come.

摘要

过去十年见证了人们对太空探索的重新关注。公共和私人机构正在投入相当大的努力,直接探索月球和火星,以及太阳系中更远的天体。在这些努力中,人们正在考虑使用自动化和载人航天器。作为宇航员、宇宙飞船或设备上不可避免的同伴,陆地微生物无疑会接触到外星环境,尽管经过了严格的净化。这些微生物最终可能会在新的栖息地中适应和生长,并可能重新殖民并导致人类太空旅行者感染。在本文中,我们证明了在环境中发现的临床相关细菌物种能够在含有糖化合物的最小培养基中生长,这些糖化合物是从外星碳源中鉴定出来的。作为替代模型,我们使用了先前从碳质陨石中分离出的碳水化合物。细菌经历了一个适应过程,导致细胞包膜的结构发生变化,引发了致病性潜力的变化,包括 和 。了解暴露于外星环境的微生物的适应情况,以及随后它们的免疫原性和毒力的变化,需要对这些情况进行全面分析,以确保未来几十年重大太空探险的安全。

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