Growth and Development of Ecotypes of Arabidopsis thaliana: Preliminary Experiments to Prepare for a Moon Lander Mission

Tatsiana Shymanovich, J. Kiss
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引用次数: 1

Abstract

Abstract NASA is planning to launch robotic landers to the Moon as part of the Artemis lunar program. We have proposed sending a greenhouse housed in a 1U CubeSat as part of one of these robotic missions. A major issue with these small landers is the limited power resources that do not allow for a narrow temperature range that we had on previous spaceflight missions with plants. Thus, the goal of this project was to extend this temperature range, allowing for greater flexibility in terms of hardware development for growing plants on the Moon. Our working hypothesis was that a mixture of ecotypes of Arabidopsis thaliana from colder and warmer climates would allow us to have successful growth of seedlings. However, our results did not support this hypothesis as a single genotype, Columbia (Col-0), had the best seed germination, growth, and development at the widest temperature range (11–25 °C). Based on results to date, we plan on using the Columbia ecotype, which will allow engineers greater flexibility in designing a thermal system. We plan to establish the parameters of growing plants in the lunar environment, and this goal is important for using plants in a bioregenerative life support system needed for human exploration on the Moon.
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拟南芥生态型的生长发育:为月球着陆器任务做准备的初步实验
作为阿尔忒弥斯登月计划的一部分,美国宇航局计划向月球发射机器人着陆器。作为这些机器人任务的一部分,我们已经提议将一个温室安置在一个1U立方体卫星上。这些小型着陆器的一个主要问题是有限的电力资源,不允许我们在以前的太空飞行任务中使用植物的狭窄温度范围。因此,这个项目的目标是扩展这个温度范围,为在月球上种植植物的硬件开发提供更大的灵活性。我们的工作假设是,来自寒冷和温暖气候的拟南芥生态型的混合将使我们能够成功地生长幼苗。然而,我们的研究结果并不支持这一假设,因为单基因型哥伦比亚(Col-0)在最宽的温度范围(11-25°C)下种子萌发、生长和发育最好。根据到目前为止的结果,我们计划使用哥伦比亚生态型,这将使工程师在设计热系统时具有更大的灵活性。我们计划建立在月球环境中种植植物的参数,这一目标对于在人类探索月球所需的生物再生生命支持系统中使用植物是重要的。
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