Cinti Stefano, Singh Sima, Covone Giovanni, Tonietti Luca, Ricciardelli Annarita, Cordone Angelina, Iacono Roberta, Mazzoli Arianna, Moracci Marco, Rotundi Alessandra, Giovannelli Donato
Department of Pharmacy, University of Naples Federico II, Naples, Italy.
BAT Center-Interuniversity Center for Studies on Bioinspired Agro-Environmental Technology, University of Napoli Federico II, Naples, Italy.
Front Microbiol. 2023 Aug 17;14:1215529. doi: 10.3389/fmicb.2023.1215529. eCollection 2023.
The space race is entering a new era of exploration, in which the number of robotic and human missions to various places in our solar system is rapidly increasing. Despite the recent advances in propulsion and life support technologies, there is a growing need to perform analytical measurements and laboratory experiments across diverse domains of science, while keeping low payload requirements. In this context, lab-on-a-chip nanobiosensors appear to be an emerging technology capable of revolutionizing space exploration, given their low footprint, high accuracy, and low payload requirements. To date, only some approaches for monitoring astronaut health in spacecraft environments have been reported. Although non-invasive molecular diagnostics, like lab-on-a-chip technology, are expected to improve the quality of long-term space missions, their application to monitor microbiological and environmental variables is rarely reported, even for analogous extreme environments on Earth. The possibility of evaluating the occurrence of unknown or unexpected species, identifying redox gradients relevant to microbial metabolism, or testing for specific possible biosignatures, will play a key role in the future of space microbiology. In this review, we will examine the current and potential roles of lab-on-a-chip technology in space exploration and in extreme environment investigation, reporting what has been tested so far, and clarifying the direction toward which the newly developed technologies of portable lab-on-a-chip sensors are heading for exploration in extreme environments and in space.
太空竞赛正在进入一个新的探索时代,在这个时代,前往太阳系各个地方的机器人和载人任务数量正在迅速增加。尽管最近在推进和生命支持技术方面取得了进展,但在保持低有效载荷要求的同时,跨多个科学领域进行分析测量和实验室实验的需求也在不断增长。在这种背景下,芯片实验室纳米生物传感器因其占地面积小、精度高和有效载荷要求低,似乎是一种能够彻底改变太空探索的新兴技术。迄今为止,仅报道了一些在航天器环境中监测宇航员健康的方法。尽管像芯片实验室技术这样的非侵入性分子诊断有望提高长期太空任务的质量,但它们在监测微生物和环境变量方面的应用却鲜有报道,即使是在地球上类似的极端环境中。评估未知或意外物种的出现、识别与微生物代谢相关的氧化还原梯度或检测特定可能的生物特征的可能性,将在太空微生物学的未来发挥关键作用。在这篇综述中,我们将研究芯片实验室技术在太空探索和极端环境调查中的当前和潜在作用,报告迄今为止已经测试的内容,并阐明便携式芯片实验室传感器的新开发技术在极端环境和太空中进行探索的方向。