Arabidopsis thaliana for Spaceflight Applications–Preparing Dormant Biology for Passive Stowage and On-Orbit Activation

Natasha J. L. Sng, Jordan A. Callaham, R. Ferl, A. Paul
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引用次数: 7

Abstract

Abstract Biological experiments on-orbit that demonstrate the effects of gravity on plants require precise control of the initiation of plant development. Preserving seed dormancy is critical to experiments that endeavor to study the effects of the orbital environment, independent of contributions from either a normal gravity, or launch. However, spaceflight experiments are often tightly constrained with respect to the configuration of the biology and associated hardware, and it is rarely possible to launch dry seeds separated from their growth substrate. Described here are techniques established to maintain viable seeds that can remain dormant for up to a month at room temperature, and hydrated on the surface of solid, Phytagel growth medium. The configuration can also accommodate a brief (less than one minute) exposure to light during the quiescent period for quick inspection for any breaks in dormancy, and for contamination. The data presented outline the preparation of sealed, Phytagel media plates of dormant Arabidopsis thaliana seed that can be activated in situ when unwrapped and installed within a lighted growth habitat. These protocols were developed primarily for spaceflight scenarios where seeded plates must be prepared ahead of time and kept at ambient temperatures. However, these protocols can be adapted for any field application where it is desirable to transport dormant, seeded plates to a remote location where it would not be possible to prepare sterile culture plates.
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航天应用拟南芥——为被动装载和在轨激活准备休眠生物学
为了证明重力对植物的影响,在轨生物实验需要精确控制植物发育的开始。保持种子休眠对研究轨道环境影响的实验至关重要,这种影响不受正常重力或发射的影响。然而,航天实验往往受到生物结构和相关硬件的严格限制,很少有可能发射与生长基质分离的干种子。这里描述的技术是建立保持可存活的种子,可以在室温下保持休眠长达一个月,并在固体Phytagel生长培养基表面水化。该配置还可以适应在静止期间短暂(少于一分钟)暴露在光线下,以便快速检查休眠中的任何中断和污染。所提供的数据概述了制备休眠拟南芥种子的密封Phytagel培养基板,当打开包装并安装在有光的生长栖息地中时,可以原位激活。这些协议主要是为必须提前准备种子板并保持在环境温度下的航天场景而制定的。然而,这些方案可以适用于任何需要将休眠的种子板运送到无法制备无菌培养板的偏远地区的现场应用。
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