Venus Flagship Mission Concept: A Decadal Survey Study.

Patricia Beauchamp, Martha S Gilmore, Richard J Lynch, Bruno V Sarli, Anthony Nicoletti, Andrew Jones, Amani Ginyard, Marcia E Segura
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引用次数: 6

Abstract

More than any other known planet, Venus is essential to our understanding of the evolution and habitability of Earth-size planets throughout the galaxy. We address two critical questions for planetary science: 1) How, if at all, did Venus evolve through a habitable phase? 2) What circumstances affect how volatiles shape habitable worlds? Volatile elements have a strong influence on the evolutionary paths of rocky bodies and are critical to understanding solar system evolution. It is clear that Venus experienced a different volatile element history from the Earth and provides the only accessible example of one end-state of habitable Earth-size planets. Venus will allow us to identify the mechanisms that operate together to produce and maintain habitable worlds like our own. The (VFM) concept architecture relies on five collaborative platforms: an Orbiter, Lander, variable-altitude Aerobot and two Small Satellites (SmallSats) delivered via a single launch on a Falcon 9 heavy expendable. The platforms would use multiple instruments to measure the exosphere, atmosphere and surface at multiple scales with high precision and over time. VFM would provide the first measurements of mineralogy and geochemistry of tessera terrain to examine rocks considered to be among the most likely to have formed in a habitable climate regime. Landed, descent, aerial and orbital platforms would work synergistically to measure the chemical composition of the atmosphere including the Aerobot operating for 60 days in the Venus clouds. Loss mechanisms would be constrained by the SmallSats in two key orbits. The baseline payload for VFM includes instruments to make the first measurements of seismicity and remanent magnetism, the first long-lived (60 day) surface platform and the first life detection instrument at Venus to interrogate what could be an inhabited world. The VFM concept directly addresses each of the three Venus Exploration Analysis Group (VEXAG) goals as well as several of the strategic objectives of the 2020 NASA Science Plan, Planetary Science Division, Heliophysics and Astrophysics. The simultaneous, synergistic measurements of the solid body, surface, atmosphere and space environment provided by the VFM would allow us to target the most accessible Earth-size planet in our galaxy, and gain a profound new understanding of the evolution of our solar system and habitable worlds.

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金星旗舰任务概念:十年调查研究。
金星比其他任何已知的行星都更重要,它对我们了解银河系中地球大小的行星的演化和可居住性至关重要。我们解决了行星科学的两个关键问题:1)如果有的话,金星是如何进化到适合居住的阶段的?2)什么情况会影响挥发物如何塑造宜居世界?挥发性元素对岩石体的演化路径有很强的影响,对理解太阳系的演化至关重要。很明显,金星经历了与地球不同的挥发性元素历史,并提供了唯一一个可居住的地球大小的行星的最终状态的例子。金星将使我们能够确定共同运作的机制,以产生和维持像我们自己这样的宜居世界。(VFM)概念架构依赖于五个协作平台:轨道飞行器、着陆器、可变高度航空机器人和两颗小型卫星(SmallSats),通过猎鹰9号重型一次性火箭的单次发射交付。这些平台将使用多种仪器在多个尺度上高精度地测量外逸层、大气和地表。VFM将首次提供tessera地形的矿物学和地球化学测量,以检查被认为最有可能在适宜居住的气候条件下形成的岩石。着陆、下降、空中和轨道平台将协同工作,测量大气的化学成分,其中包括在金星云层中运行60天的Aerobot。小型卫星在两个关键轨道上的损耗机制将受到限制。VFM的基本有效载荷包括首次测量地震活动性和剩磁的仪器,第一个长寿命(60天)的表面平台和金星上第一个生命探测仪器,以询问什么可能是一个有人居住的世界。VFM概念直接解决了金星探测分析小组(VEXAG)的三个目标,以及2020年NASA科学计划、行星科学部、太阳物理学和天体物理学的几个战略目标。VFM提供的对固体、表面、大气和空间环境的同步协同测量将使我们能够瞄准银河系中最容易接近的地球大小的行星,并对太阳系和宜居世界的演变获得深刻的新认识。
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Venus Flagship Mission Concept: A Decadal Survey Study. Exploring Transfers between Earth-Moon Halo Orbits via Multi-Objective Reinforcement Learning.
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