A. Hendrix, T. Becker, D. Bodewits, Todd Bradley, S. Brooks, B. Byron, J. Cahill, J. Clarke, L. Feaga, P. Feldman, Randy Gladstone, C. Hansen, C. Hibbitts, T. Koskinen, L. Magaña, P. Molyneux, S. Nikzad, J. Noonan, W. Pryor, U. Raut, K. Retherford, L. Roth, E. Royer, E. Sciamma-O’Brien, A. Stern, K. Stockstill-Cahill, F. Vilas, Bob West
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引用次数: 1

摘要

我们回顾了最近对太阳系目标的紫外观测的重要性,并讨论了未来十年进一步测量、仪器和实验室工作的必要性。在过去的十年中,利用紫外光谱技术在太阳系科学中取得了许多重要的进展。紫外成像光谱以前几乎只用于研究巨行星的大气、行星的外逸层和彗星的发射,最近得到了更广泛的应用。在土星的卫星土卫二上发现的间歇泉状的羽流部分是由于紫外线掩星观测的结果,在卡西尼号的整个任务中,这项技术被用来描述羽流和喷流的特征。利用哈勃太空望远镜(HST)的紫外线发射和吸收成像,在木星的卫星木卫二上发现了类似活动的证据。在整个太阳系的其他卫星和小天体上,紫外光谱已被用来搜索活动,探测表面成分,并描绘空间风化效应;紫外光度法研究已被用来揭示风化层结构。在过去的1-2年里,我们对太阳系表面的紫外成像光谱有了很大的了解,包括对表面组成、空间风化效应(如辐射分解产物)和挥发物在小行星(如[2][39][48][76][84])、月球(如[30][46][49])、彗核(如[85])和冰冻卫星(如[38][41-44][45][47][65])的研究。紫外线是敏感的一些物种,轻微的污染物和颗粒大小往往不检测其他光谱制度。在接下来的十年里,哈勃望远镜的观测可能会结束。迫切需要新的基础设施来支持未来的紫外线研究。这些需求既包括帮助改进未来紫外线观测的发展工作,也包括帮助解释航天器数据的实验室工作。在未来十年中,紫外仪器将成为各种目标任务的关键工具,特别是对无大气物体的紫外反射率研究的快速扩展应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Ultraviolet-Based Science in the Solar System: Advances and Next Steps
We review the importance of recent UV observations of solar system targets and discuss the need for further measurements, instrumentation and laboratory work in the coming decade. In the past decade, numerous important advances have been made in solar system science using ultraviolet (UV) spectroscopic techniques. Formerly used nearly exclusively for studies of giant planet atmospheres, planetary exospheres and cometary emissions, UV imaging spectroscopy has recently been more widely applied. The geyser-like plume at Saturn's moon Enceladus was discovered in part as a result of UV stellar occultation observations, and this technique was used to characterize the plume and jets during the entire Cassini mission. Evidence for a similar style of activity has been found at Jupiter's moon Europa using Hubble Space Telescope (HST) UV emission and absorption imaging. At other moons and small bodies throughout the solar system, UV spectroscopy has been utilized to search for activity, probe surface composition, and delineate space weathering effects; UV photometric studies have been used to uncover regolith structure. Insights from UV imaging spectroscopy of solar system surfaces have been gained largely in the last 1-2 decades, including studies of surface composition, space weathering effects (e.g. radiolytic products) and volatiles on asteroids (e.g. [2][39][48][76][84]), the Moon (e.g. [30][46][49]), comet nuclei (e.g. [85]) and icy satellites (e.g. [38][41-44][45][47][65]). The UV is sensitive to some species, minor contaminants and grain sizes often not detected in other spectral regimes. In the coming decade, HST observations will likely come to an end. New infrastructure to bolster future UV studies is critically needed. These needs include both developmental work to help improve future UV observations and laboratory work to help interpret spacecraft data. UV instrumentation will be a critical tool on missions to a variety of targets in the coming decade, especially for the rapidly expanding application of UV reflectance investigations of atmosphereless bodies.
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