太空中的蠕虫?模型生物剂量计。

Yang Zhao, Robert Johnsen, David Baillie, Ann Rose
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摘要

虽然众所周知,辐射会造成突变性损害,但人们对长期暴露在空间辐射中的生物效应知之甚少。在实验动物和人类中,暴露于辐射可导致严重的遗传性缺陷,在高剂量下易患癌症、辐射病和死亡。在实验动物身上对不同类型的辐射进行地面控制研究,并在空间站或太空探测器上对辐射进行物理测量,都是可能的。然而,长期暴露于各种空间辐射的实际生物影响尚未得到研究,关于太阳耀斑的生物后果的资料也很少。生物系统不仅仅是被动的记录工具。它们在不同的条件下有不同的反应,因此能够从活的动物身上收集数据是很重要的。有一些技术上的困难限制了在空间环境中长时间放置实验生物体以恢复遗传数据的方式。利用自受精雌雄同体线虫,秀丽隐杆线虫为生物剂量计的设计提供了可能。本文介绍了该模型系统的优点,并对秀丽隐杆线虫的空间研究文献进行了综述。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Worms in space? A model biological dosimeter.

Although it is well known that radiation causes mutational damage, little is known about the biological effects of long-term exposure to radiation in space. Exposure to radiation can result in serious heritable defects in experimental animals, and in humans, susceptibility to cancer, radiation-sickness, and death at high dosages. It is possible to do ground controlled studies of different types of radiation on experimental animals and to physically measure radiation on the space station or on space probes. However, the actual biological affects of long-term exposure to the full range of space radiation have not been studied, and little information is available about the biological consequences of solar flares. Biological systems are not simply passive recording instruments. They respond differently under different conditions, and thus it is important to be able to collect data from a living animal. There are technical difficulties that restrict the placement of an experimental organism in a space environment for long periods of time, in a manner that allows for the recovery of genetic data. Use of the self-fertilizing hermaphroditic nematode, Caenorhabditis elegans offers potential for the design of a biological dosimeter. In this paper, we describe the advantages of this model system and review the literature of C. elegans in space.

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