Timelines as a tool for learning about space weather storms

IF 3.4 2区 物理与天体物理 Q2 ASTRONOMY & ASTROPHYSICS Journal of Space Weather and Space Climate Pub Date : 2021-03-12 DOI:10.1051/SWSC/2021011
D. Knipp, V. Bernstein, Kaiya Wahl, H. Hayakawa
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引用次数: 17

Abstract

Space weather storms typically have solar, interplanetary, geophysical and societal-effect components that overlap in time, making it hard for students and novices to determine cause-and-effect relationships and relative timing. To address this issue, we use timelines to provide context for space weather storms of different intensities. First, we present a timeline and tabular description for the great auroral storms of the last 500 years as an example for space climate. The graphical summary for these 14 events suggests that they occur about every 40–60 years, although the distribution of such events is far from even. One outstanding event in 1770 may qualify as a one-in-500-year auroral event, based on duration. Additionally, we present two examples that describe space weather storms using solar, geospace and effects categories. The first of these is for the prolonged storm sequence of late January 1938 that produced low-latitude auroras and space weather impacts on mature technology (telegraphs) and on high frequency radio communication for aviation, which was a developing technology. To illustrate storm effects in the space-age, we produce a detailed timeline for the strong December 2006 geomagnetic storm that impacted numerous space-based technologies for monitoring space weather and for communication and navigation. During this event there were numerous navigations system disturbances and hardware disruptions. We adopt terminology developed in many previous space weather studies and blend it with historical accounts to create graphical timelines to help organize and disentangle the events presented herein.
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时间线作为学习空间天气风暴的工具
太空天气风暴通常具有太阳、行星际、地球物理和社会影响成分,这些成分在时间上重叠,这使得学生和新手很难确定因果关系和相对时间。为了解决这个问题,我们使用时间线为不同强度的空间天气风暴提供背景。首先,我们给出了过去500年的大极光风暴的时间线和表格描述,作为空间气候的一个例子。这14个事件的图形摘要表明,它们大约每40-60年发生一次,尽管这些事件的分布远不均匀。根据持续时间,1770年的一次杰出事件可能被视为500年一遇的极光事件。此外,我们还举了两个例子,分别使用太阳、地球空间和影响类别来描述太空天气风暴。第一个是1938年1月下旬的长时间风暴序列,它产生了低纬度极光和太空天气对成熟技术(电报)和航空高频无线电通信的影响,这是一项正在发展的技术。为了说明太空时代的风暴效应,我们为2006年12月强烈的地磁风暴制作了一个详细的时间表,这场风暴影响了许多用于监测太空天气以及通信和导航的天基技术。在这次事件中,出现了许多导航系统干扰和硬件中断。我们采用了之前许多空间天气研究中开发的术语,并将其与历史记录相结合,以创建图形时间线,帮助组织和理清本文所述事件。
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来源期刊
Journal of Space Weather and Space Climate
Journal of Space Weather and Space Climate ASTRONOMY & ASTROPHYSICS-GEOCHEMISTRY & GEOPHYSICS
CiteScore
6.90
自引率
6.10%
发文量
40
审稿时长
8 weeks
期刊介绍: The Journal of Space Weather and Space Climate (SWSC) is an international multi-disciplinary and interdisciplinary peer-reviewed open access journal which publishes papers on all aspects of space weather and space climate from a broad range of scientific and technical fields including solar physics, space plasma physics, aeronomy, planetology, radio science, geophysics, biology, medicine, astronautics, aeronautics, electrical engineering, meteorology, climatology, mathematics, economy, informatics.
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