Frontiers in Planetary Rings Science

S. Brooks, T. Becker, K. Bailli'e, H. Becker, E. T. Bradley, J. Colwell, J. Cuzzi, I. Pater, S. Eckert, M. E. Moutamid, S. Edgington, P. Estrada, M. Evans, A. Flandes, R. French, 'A. Garc'ia, M. Gordon, M. Hedman, H. Hsu, R. Jerousek, E. Marouf, B. Meinke, P. Nicholson, S. Pilorz, M. Showalter, L. Spilker, H. Throop, M. Tiscareno
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引用次数: 3

Abstract

We now know that the outer solar system is host to at least six diverse planetary ring systems, each of which is a scientifically compelling target with the potential to inform us about the evolution, history and even the internal structure of the body it adorns. These diverse ring systems represent a set of distinct local laboratories for understanding the physics and dynamics of planetary disks, with applications reaching beyond our Solar System. We highlight the current status of planetary rings science and the open questions before the community to promote continued Earth-based and spacecraft-based investigations into planetary rings. As future spacecraft missions are launched and more powerful telescopes come online in the decades to come, we urge NASA for continued support of investigations that advance our understanding of planetary rings, through research and analysis of data from existing facilities, more laboratory work and specific attention to strong rings science goals during future mission selections.
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行星环科学前沿
我们现在知道,外太阳系至少有六个不同的行星环系统,每一个都是科学上引人注目的目标,有可能告诉我们它所装饰的天体的进化、历史甚至内部结构。这些不同的环系统代表了一组不同的本地实验室,用于理解行星盘的物理和动力学,其应用范围超出了我们的太阳系。我们强调了行星环科学的现状和摆在社区面前的开放性问题,以促进持续的基于地球和航天器的行星环研究。随着未来航天器任务的发射和更强大的望远镜在未来几十年上线,我们敦促NASA继续支持研究,通过对现有设施数据的研究和分析,更多的实验室工作,并在未来的任务选择中特别关注强环科学目标,从而提高我们对行星环的理解。
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