紫外线研究人员调查生命的出现:向欧空局F-call提出的任务建议

A. I. Gómez de Castro, Ana I De Isidro-Gómez, Diego de Leyva, Francesca Bachiotti, J. Leon, Pol Ribes, J. Casalta, C. Miravet, J. C. Vallejo, M. Sachkov, Ada Canet, B. Shustov, R. de la Fuente, K. France, Lucas Patty, S. Benetti, A. ud-Doula
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引用次数: 1

摘要

研究生命出现的紫外线研究员(uiel)任务旨在在140-400 nm光谱范围内进行低色散(600- 1000)紫外光谱偏振测定,以研究行星系统的形成,其与恒星风的相互作用,并通过遥感太阳系中近地轨道上的小天体(彗星和陨石)来寻找益生元分子的特征。URIEL被设想为一个50厘米的主望远镜,带有一个ritcheychrimtien支架。望远镜配备了一个单一的仪器,紫外分光偏振计,其低色散将能够解决主要的光谱特征,同时保证每个分辨率元素有足够的通量,使Stokes参数在全范围内的测量精度达到500ppm。根据最近基于陨石化学分析的计算,这种精度足以在附近小天体中通过丙氨酸在180纳米处的光学活性进行远程探测。从这个意义上说,URIEL是一项探路者任务,该技术将使氨基酸遥感和解决地球生物分子中手性不平衡的根源成为可能。
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The ultraviolet researcher to investigate the emergence of life: a mission proposal to ESA's F-call
The mission Ultraviolet Researcher to Investigate the Emergence of Life (URIEL) is designed to carry out low dispersion (600-1,000) UV spectropolarimetry in the 140-400 nm spectral range to investigate the formation of planetary systems, its interaction with stellar winds and search for signatures of prebiotic molecules by remote sensing of small bodies in the Solar System (comets and meteorites) in near Earth orbit. URIEL is conceived as a 50cm primary telescope with a RitcheyChrétien mounting. The telescope is equipped with a single instrument, the ultraviolet spectropolarimeter, whose low dispersion will enable resolving the main spectral features whilst guaranteeing enough flux per resolution element for the Stokes parameters to be measured to an accuracy of 500 ppm in the full range. According to recent calculations based on the chemical analysis of meteorites, this accuracy suffices for the remote detection of alanine by its optical activity at 180 nm in nearby minor bodies. In this sense, URIEL is a pathfinder mission to the technology that will enable remote sensing of amino acids and addressing the source of the chirality imbalance in Earth's bio-molecules.
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