New Insights in Plant Biology Gained from Research in Space

A. Cannon, Mari L. Salmi, G. Clark, S. Roux
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引用次数: 2

Abstract

ABSTRACT Recent spaceflight experiments have provided many new insights into the role of gravity in plant growth and development. Scientists have been taking seeds and plants into space for decades in an effort to understand how the stressful environment of space affects them. The resultant data have yielded significant advances in the development of advanced life-support systems for long-duration spaceflight and a better understanding of the fundamental role of gravity in directing the growth and development of plants. Experiments have improved as new spaceflight hardware and technology paved the way for progressively more insightful and rigorous plant research in space. The International Space Station (ISS) has provided an opportunity for scientists to both monitor and control their experiments in real-time. Experiments on the ISS have provided valuable insights into endogenous growth responses, light responses, and transcriptomic and proteomic changes that occur in the microgravity environment. In recent years most studies of plants in space have used Arabidopsis thaliana, but the single-celled, Ceratopteris richardii spore is also a valuable model system that has been used to understand plant gravity response. Experiments using these fern spores have revealed a dynamic and gravity-responsive trans-cell Ca2+ current that directs polarization of these spores and a possible role of extracellular nucleotides in establishing or contributing to this current. As technology continues to improve, spaceflight experiments will provide many new insights into the role and effects of gravity on plant growth and development.
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从太空研究中获得植物生物学的新见解
最近的航天实验为重力在植物生长发育中的作用提供了许多新的见解。几十年来,科学家们一直在把种子和植物带到太空,试图了解太空环境的压力是如何影响它们的。由此产生的数据在开发用于长时间太空飞行的先进生命支持系统方面取得了重大进展,并更好地了解了重力在指导植物生长和发育中的基本作用。随着新的航天硬件和技术为在太空中进行更有洞察力和更严格的植物研究铺平了道路,实验也得到了改进。国际空间站(ISS)为科学家提供了一个实时监测和控制他们的实验的机会。国际空间站上的实验为研究微重力环境下的内源性生长反应、光反应、转录组学和蛋白质组学变化提供了有价值的见解。近年来,对空间植物的研究大多采用拟南芥,但单细胞的richardii角羽翼虫孢子也是一种有价值的模型系统,用于了解植物的重力响应。利用这些蕨类孢子进行的实验揭示了一种动态和重力响应的跨细胞Ca2+电流,该电流指导这些孢子的极化,以及细胞外核苷酸在建立或促进这种电流中的可能作用。随着技术的不断进步,航天实验将为重力对植物生长发育的作用和影响提供许多新的见解。
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