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Microgravity Cell Culture Systems and Bioreactors: Current Status and Future Developments

机译:微重力细胞培养系统和生物反应器:现状和未来发展

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The International Space Station (ISS) offers remarkable opportunities for scientists to carry out experiments. However, the schedule for astronauts on board is tight, leaving not much time for science. This is one reason why the currently developed space hardwares such as cell culture systems and bioreactors have to demonstrate high levels of automation that save precious crew time. Life-science hardware for space applications has to provide the optimal conditions for biological samples and to ensure proper functionality under microgravity conditions. Furthermore, the hardware has to pass the stringent safety requirements for manned space flights. Before space life-science hardware is ready for the flight, numerous test runs have to be performed to verify its flawless functionality and safety. In this chapter we introduce state-of-the-art instruments as examples of currently used cell culture hardware for space applications. The "PADIAC" blood cell culture chamber was used recently in space to further investigate the behavior of Tlymphocytes to microgravity. The experiences with the "PADIAC" hardware combined with one of our previous studies such as "SACESTRE" are currently being used to develop and build a new piece of space hardware called "YEAST BIOREACTOR". This instrument will allow yeast cultivation during an extended period of time as well as the exposure of samples periodically to other stressors in addition to microgravity. An analytical tool called "OoClamp" is also introduced to enable the measurement of the electrical properties of living cells under microgravity conditions. This tool is intended as an integrated part of future bioreactors for the on-site verification of the health status of cells, for example. Such a system would be ideal for life-science experiments in space because, without having to bring back the cells, substantial data on cellular processes could be gathered in space.
机译:国际空间站(ISS)为科学家提供了进行实验的绝佳机会。但是,宇航员的时间表很紧,科学时间不多。这就是为什么当前开发的太空硬件(例如细胞培养系统和生物反应器)必须展示出高水平的自动化水平以节省宝贵的乘员时间的原因之一。用于太空应用的生命科学硬件必须为生物样品提供最佳条件,并确保在微重力条件下具有适当的功能。此外,硬件必须通过载人航天的严格安全要求。在准备好太空生命科学硬件飞行之前,必须进行大量测试,以验证其完美的功能和安全性。在本章中,我们介绍最先进的仪器,作为当前用于空间应用的细胞培养硬件的示例。最近在太空中使用了“ PADIAC”血细胞培养室,以进一步研究淋巴细胞对微重力的行为。 “ PADIAC”硬件的经验与我们之前的一项研究(例如“ SACESTRE”)相结合,目前正在用于开发和建造一种名为“酵母生物”的新型太空硬件。该仪器可以延长酵母的培养时间,并且除了微重力作用外,还可以使样品定期暴露于其他应激源下。还引入了一种称为“ OoClamp”的分析工具,可以在微重力条件下测量活细胞的电性能。例如,此工具旨在作为未来生物反应器的集成部分,用于现场验证细胞的健康状况。这样的系统对于太空生命科学实验而言将是理想的,因为无需重新带回细胞,就可以在太空中收集有关细胞过程的大量数据。

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