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Hao, T., Liu, X., Ogg, J., Liang, Z., Xiang, R., Zhang, X., Zhang, D., Zhang, C., Liu, Q. and Li, X. (2017) Intensified Episodes of East Asian Winter Monsoon during the Middle through Late Holocene Driven by North Atlantic Cooling Events: High-Resolution Lignin Records from the South Yellow Sea, China. Earth and Planetary Science Letters, 479, 144-155.
https://doi.org/10.1029/2007PA001577

has been cited by the following article:

• TITLE: Terrestrial Temperature, Sea Levels and Ice Area Links with Solar Activity and Solar Orbital Motion

  AUTHORS: Valentina V. Zharkova, Irina Vasilieva

  KEYWORDS: Sun: Magnetic Field, Sun: Solar Activity, Sun: Inertial Motion, Earth: Temperature, Earth: Sea Level, Earth: Ice Area

  JOURNAL NAME: Natural Science, Vol.15 No.9, September 28, 2023

  ABSTRACT: This paper explores the links between terrestrial temperature, sea levels and ice areas in both hemispheres with solar activity indices expressed through averaged sunspot numbers together with the summary curve of eigenvectors of the solar background magnetic field (SBMF) and with changes of Sun-Earth distances caused by solar inertial motion resulting from the gravitation of large planets in the solar system. Using the wavelet analysis of the GLB and HadCRUTS datasets two periods: 21.4 and 36 years in GLB, set and the period of about 19.6 years in the HadCRUTS are discovered. The 21.4-year period is associated with variations in solar activity defined by the summary curve of the largest eigenvectors of the SBMF. A dominant 21.4-year period is also reported in the variations of the sea level, which is linked with the period of 21.4 years detected in the GLB temperature and the summary curve of the SBMF variations. The wavelet analysis of ice and snow areas shows that in the Southern hemisphere, it does not show any links to solar activity periods while in the Northern hemisphere, the ice area reveals a period of 10.7 years equal to a usual solar activity cycle. The TSI in March-August of every year is found to grow with every year following closely the temperature curve, because the Sun moves closer to the Earth orbit owing to gravitation of large planets (solar inertial motion, SIM), while the variations of solar radiation during a whole year have more steady distribution without a sharp TSI increase during the last two centuries. The additional TSI contribution caused by SIM is likely to secure the additional energy input and exchange between the ocean and atmosphere.