Evidence for lunar tide effects in Earth’s plasmasphere

Tides are universal and affect spatially distributed systems, ranging from planetary to galactic scales. In the Earth–Moon system, effects caused by lunar tides were reported in the Earth’s crust, oceans, neutral gas-dominated atmosphere (including the ionosphere) and near-ground geomagnetic field....

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Veröffentlicht in:Nature physics 2023-04, Vol.19 (4), p.486-491
Hauptverfasser: Xiao, Chao, He, Fei, Shi, Quanqi, Liu, Wenlong, Tian, Anmin, Guo, Ruilong, Yue, Chao, Zhou, Xuzhi, Wei, Yong, Rae, I. Jonathan, Degeling, Alexander W., Angelopoulos, Vassilis, Masongsong, Emmanuel V., Liu, Ji, Zong, Qiugang, Fu, Suiyan, Pu, Zuyin, Zhang, Xiaoxin, Wang, Tieyan, Wang, Huizi, Zhang, Zhao
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container_end_page 491
container_issue 4
container_start_page 486
container_title Nature physics
container_volume 19
creator Xiao, Chao
He, Fei
Shi, Quanqi
Liu, Wenlong
Tian, Anmin
Guo, Ruilong
Yue, Chao
Zhou, Xuzhi
Wei, Yong
Rae, I. Jonathan
Degeling, Alexander W.
Angelopoulos, Vassilis
Masongsong, Emmanuel V.
Liu, Ji
Zong, Qiugang
Fu, Suiyan
Pu, Zuyin
Zhang, Xiaoxin
Wang, Tieyan
Wang, Huizi
Zhang, Zhao
description Tides are universal and affect spatially distributed systems, ranging from planetary to galactic scales. In the Earth–Moon system, effects caused by lunar tides were reported in the Earth’s crust, oceans, neutral gas-dominated atmosphere (including the ionosphere) and near-ground geomagnetic field. However, whether a lunar tide effect exists in the plasma-dominated regions has not been explored yet. Here we show evidence of a lunar tide-induced signal in the plasmasphere, the inner region of the magnetosphere, which is filled with cold plasma. We obtain these results by analysing variations in the plasmasphere’s boundary location over the past four decades from multisatellite observations. The signal possesses distinct diurnal (and monthly) periodicities, which are different from the semidiurnal (and semimonthly) variations dominant in the previously observed lunar tide effects in other regions. These results demonstrate the importance of lunar tidal effects in plasma-dominated regions, influencing understanding of the coupling between the Moon, atmosphere and magnetosphere system through gravity and electromagnetic forces. Furthermore, these findings may have implications for tidal interactions in other two-body celestial systems. Lunar tides affect Earth’s oceans and its geomagnetic field. Multisatellite observations demonstrate that they also impact the plasmasphere.
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Jonathan ; Degeling, Alexander W. ; Angelopoulos, Vassilis ; Masongsong, Emmanuel V. ; Liu, Ji ; Zong, Qiugang ; Fu, Suiyan ; Pu, Zuyin ; Zhang, Xiaoxin ; Wang, Tieyan ; Wang, Huizi ; Zhang, Zhao</creator><creatorcontrib>Xiao, Chao ; He, Fei ; Shi, Quanqi ; Liu, Wenlong ; Tian, Anmin ; Guo, Ruilong ; Yue, Chao ; Zhou, Xuzhi ; Wei, Yong ; Rae, I. Jonathan ; Degeling, Alexander W. ; Angelopoulos, Vassilis ; Masongsong, Emmanuel V. ; Liu, Ji ; Zong, Qiugang ; Fu, Suiyan ; Pu, Zuyin ; Zhang, Xiaoxin ; Wang, Tieyan ; Wang, Huizi ; Zhang, Zhao</creatorcontrib><description>Tides are universal and affect spatially distributed systems, ranging from planetary to galactic scales. In the Earth–Moon system, effects caused by lunar tides were reported in the Earth’s crust, oceans, neutral gas-dominated atmosphere (including the ionosphere) and near-ground geomagnetic field. However, whether a lunar tide effect exists in the plasma-dominated regions has not been explored yet. Here we show evidence of a lunar tide-induced signal in the plasmasphere, the inner region of the magnetosphere, which is filled with cold plasma. We obtain these results by analysing variations in the plasmasphere’s boundary location over the past four decades from multisatellite observations. The signal possesses distinct diurnal (and monthly) periodicities, which are different from the semidiurnal (and semimonthly) variations dominant in the previously observed lunar tide effects in other regions. These results demonstrate the importance of lunar tidal effects in plasma-dominated regions, influencing understanding of the coupling between the Moon, atmosphere and magnetosphere system through gravity and electromagnetic forces. Furthermore, these findings may have implications for tidal interactions in other two-body celestial systems. Lunar tides affect Earth’s oceans and its geomagnetic field. 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subjects 639/33/445
639/766/1960
639/766/525
Atmosphere
Atomic
Classical and Continuum Physics
Cold
Cold plasmas
Complex Systems
Computer networks
Condensed Matter Physics
Diurnal variations
Earth
Earth crust
Electromagnetic forces
Geomagnetic field
Geomagnetism
Geophysics
Influence
Ionosphere
Laboratories
Letter
Lunar tides
Magnetospheres
Mathematical and Computational Physics
Molecular
Moon
Neutral gases
Oceans
Optical and Plasma Physics
Physics
Physics and Astronomy
Plasma
Plasmasphere
Theoretical
Tidal effects
Tides
title Evidence for lunar tide effects in Earth’s plasmasphere
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