斯皮策再现器任务:空间天气研究和运行的优势

Shawn M. Usman, Giovanni G. Fazio, Christopher A. Grasso, R. Hickox, Cameo Lance, William B. Rideout, Daveanand M. Singh, Howard A. Smith, A. Vourlidas, Joseph L. Hora, G. J. Melnick, Matthew Ashby, V. Tolls, S. Willner, Salma Benitez
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摘要

1979 年,美国国家航空航天局制定了大天文台计划,其中包括四台望远镜(哈勃、康普顿、钱德拉和斯皮策)来探索宇宙。斯皮策太空望远镜于 2003 年发射升空,进入太阳轨道,逐渐远离地球。斯皮策的运行非常成功,直到 2020 年,美国国家航空航天局终止了观测,并将望远镜置于安全模式。2028 年,美国太空部队有机会通过远程机器人重新启动斯皮策望远镜进行天文观测,从而展示卫星服务,并在另一项实验中,通过观测太阳日冕物质抛射,开展新的空间气象研究和操作能力。为此,将在 2030 年发射一颗小型卫星--斯皮策-复兴者任务(SRM)--与斯皮策会合,并将其定位在斯皮策周围,作为重新调试和科学运作的中继站。本文简要介绍了斯皮策的科学目标,但重点是 SRM 为展示新的空间气象研究和运行能力提供的独特机会。
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Spitzer Resurrector Mission: Advantages for Space Weather Research and Operations
In 1979, NASA established the Great Observatory program, which included four telescopes (Hubble, Compton, Chandra, and Spitzer) to explore the Universe. The Spitzer Space Telescope was launched in 2003 into solar orbit, gradually drifting away from the Earth. Spitzer was operated very successfully until 2020 when NASA terminated observations and placed the telescope in safe mode. In 2028, the U.S. Space Force has the opportunity to demonstrate satellite servicing by telerobotically reactivating Spitzer for astronomical observations, and in a separate experiment, carry out novel Space Weather research and operations capabilities by observing solar Coronal Mass Ejections. This will be accomplished by launching a small satellite, the Spitzer-Resurrector Mission (SRM), to rendezvous with Spitzer in 2030, positioning itself around it, and serving as a relay for recommissioning and science operations. A sample of science goals for Spitzer is briefly described, but the focus of this paper is on the unique opportunity offered by SRM to demonstrate novel Space Weather research and operations capabilities.
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