History of Sunspot Research and Forecast of the Maximum of Solar Cycle 25

IF 0.5 4区 物理与天体物理 Q4 ASTRONOMY & ASTROPHYSICS Kinematics and Physics of Celestial Bodies Pub Date : 2021-08-28 DOI:10.3103/S0884591321040073
I. E. Vasiljeva, M. I. Pishkalo
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引用次数: 4

Abstract

The paper provides a short historical overview of sunspot observations from their discovery until the present. The review goes beyond collecting all known historical information about the study of sunspots but highlights the research of five scientists of different epochs over five centuries since the 16th. Not as much attention is deliberately given to some well-known studies and discoveries. The focus is on the utmost long-term observations of sunspots, which provide information that expands the boundaries of classical Wolf numbers or the number of sunspots groups. Sunspots have been observed since ancient times and they were documented in ancient chronicles. Active observation of sunspots began after the invention of the telescope, probably by Hans Lippershey in the early 17th century. It is documented that Thomas Harriot was the first to observe sunspots with a telescope on December 8, 1610. It is probable that Galileo Galilei and Johann Fabricius observed sunspots almost simultaneously with him in December 1610 using a telescope, independently of each other and of Harriot. The first publication about sunspots was issued by Fabricius in June 1611. We dwell on the observations of Christoph Scheiner, Christian Horrebow, Heinrich Schwabe, and Hisako Koyama. Christoph Scheiner described his long-term observations and studies of sunspots from 1611 to 1630 in his book Rosa Ursina sive Sol, which became a model for the Sun observers for many years afterwards. Christian Horrebow was the first to speculate on the regularity of sunspots, and Heinrich Schwabe was the first in 1843 to discover the periodicity (with a period of approximately 10 years) of the number of groups of sunspots. In 1852 Rudolf Wolf, analyzing all available sources, clarified that solar activity has an 11-year periodicity. He introduced the concept of the relative sunspot number and organized regular observations and publication of their results. Hisako Koyama’s 40-year observations have helped reconcile current sunspot counts with earlier ones. Wolf’s system lasted until the beginning of the 21st century. In July 2015, a new version of the relative sunspot numbers was adopted (Version 2.0). In this paper, the ratio of “new” and “old” Wolf numbers is calculated and a table of characteristics of 11‑year cycles according to Version 2.0 is proposed. Two forecasts of the maximum of solar cycle 25 are also calculated. In the case when the precursor of the maximum is the value of the relative sunspot number in the cycle minimum (correlation coefficient r = 0.557 and P < 0.001), the predicted maximum is 135.5 ± 33.8. In the second case, when the precursor is the duration of the previous cycle (r = –0.686 and P < 0.001), the predicted maximum is 179.4 ± 18.2. Both predictions indicate that solar cycle 25 will be stronger than solar cycle 24 and weaker than solar cycle 23.

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太阳黑子研究的历史与第25太阳周期最大值的预报
本文简要介绍了太阳黑子从发现到现在的观测历史。这篇综述不仅收集了所有已知的关于太阳黑子研究的历史信息,还强调了自16世纪以来五个世纪以来不同时期的五位科学家的研究。对于一些众所周知的研究和发现,人们并没有刻意给予那么多的关注。重点是对太阳黑子进行最长期的观测,这些观测提供了扩展经典沃尔夫数或太阳黑子群数量边界的信息。太阳黑子自古以来就被观测到,并被记录在古代编年史中。对太阳黑子的积极观测始于望远镜发明之后,可能是在17世纪早期由汉斯·利珀希(Hans Lippershey)发明的。据记载,1610年12月8日,托马斯·哈里奥特是第一个用望远镜观察太阳黑子的人。1610年12月,伽利略·伽利莱和约翰·法布里修斯几乎同时用望远镜观测到了太阳黑子,他们彼此独立,也不受哈里奥的影响。第一本关于太阳黑子的出版物是由fabicius于1611年6月发表的。我们将详细讨论Christoph Scheiner、Christian Horrebow、Heinrich Schwabe和Hisako Koyama的观察结果。Christoph Scheiner在他的书《Rosa Ursina sive Sol》中描述了他从1611年到1630年对太阳黑子的长期观察和研究,这本书在后来的许多年里成为了太阳观测者的模型。Christian Horrebow是第一个推测太阳黑子规律性的人,Heinrich Schwabe是1843年第一个发现太阳黑子群数量的周期性(周期约为10年)的人。1852年,鲁道夫·沃尔夫分析了所有可用的资料,澄清了太阳活动的周期为11年。他提出了相对太阳黑子数的概念,并组织了定期观测和发表观测结果。小山久子(Hisako Koyama) 40年的观测帮助调和了当前和早期的太阳黑子数量。沃尔夫的制度一直持续到21世纪初。2015年7月,采用了新版太阳黑子相对数(2.0版)。本文计算了“新”狼数与“旧”狼数的比值,并根据2.0版提出了11年周期的特征表。并对第25太阳活动周期的最大值进行了两次预报。当最大值的前兆为周期最小值的相对太阳黑子数时(相关系数r = 0.557, P <0.001),预测最大值为135.5±33.8。在第二种情况下,当前驱是前一个周期的持续时间(r = -0.686, P <0.001),预测最大值为179.4±18.2。两种预测都表明,第25太阳活动周期将比第24太阳活动周期强,比第23太阳活动周期弱。
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来源期刊
Kinematics and Physics of Celestial Bodies
Kinematics and Physics of Celestial Bodies ASTRONOMY & ASTROPHYSICS-
CiteScore
0.90
自引率
40.00%
发文量
24
审稿时长
>12 weeks
期刊介绍: Kinematics and Physics of Celestial Bodies is an international peer reviewed journal that publishes original regular and review papers on positional and theoretical astronomy, Earth’s rotation and geodynamics, dynamics and physics of bodies of the Solar System, solar physics, physics of stars and interstellar medium, structure and dynamics of the Galaxy, extragalactic astronomy, atmospheric optics and astronomical climate, instruments and devices, and mathematical processing of astronomical information. The journal welcomes manuscripts from all countries in the English or Russian language.
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