金星作为附近的系外行星实验室

S. Kane, G. Arney, P. Byrne, D. Crisp, S. Domagal‐Goldman, C. Goldblatt, D. Grinspoon, J. Head, A. Lenardic, V. Meadows, C. Unterborn, M. Way
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引用次数: 1

摘要

天体生物学社区的主要目标是识别地球以外可能适合居住的环境,并在这些环境中寻找生命的迹象。了解可居住环境和可探测特征的限制的一个基本方面是研究这种环境可能发生的地方。因此,研究不适宜居住环境的创造、演化和频率是天体生物学的一个组成部分。对这些环境的研究为理解行星体上宜居和不宜居条件之间的分歧提供了机会。这种行星的原型是地球的兄弟行星金星,它提供了一个独特的机会来探索创造一个完全不适合居住的环境的过程,从而定义了排除生物相关特征的条件。我们主张继续对我们邻近的行星进行全面的研究,包括早期大气模型,成分丰度,以及从当前和未来的系外行星数据中进行金星模拟频率分析。至关重要的是,提供现场数据的金星新任务对于解决我们目前理解中的主要差距是必要的,并使我们能够采取下一步措施来表征行星的可居住性。
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Venus as a Nearby Exoplanetary Laboratory
The key goals of the astrobiology community are to identify environments beyond Earth that may be habitable, and to search for signs of life in those environments. A fundamental aspect of understanding the limits of habitable environments and detectable signatures is the study of where such environments can occur. Thus, the need to study the creation, evolution, and frequency of environments hostile to habitability is an integral part of the astrobiology story. The study of these environments provides the opportunity to understand the bifurcation between habitable and uninhabitable conditions on planetary bodies. The archetype of such a planet is Earth's sibling planet, Venus, which provides a unique opportunity to explore the processes that created a completely uninhabitable environment and thus define the conditions that rule out bio-related signatures. We advocate a continued comprehensive study of our neighboring planet, to include models of early atmospheres, compositional abundances, and Venus-analog frequency analysis from current and future exoplanet data. Critically, new missions to Venus that provide in-situ data are necessary to address the major gaps in our current understanding, and to enable us to take the next steps in characterizing planetary habitability.
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