A Statistical Analysis of the Morphology of Storm‐Enhanced Density Plumes Over the North American Sector

The storm‐enhanced density (SED) is a large‐scale midlatitude ionospheric electron density enhancement in the local afternoon sector, which exhibits substantial spatial gradients and thus can impose detrimental effects on modern navigation and communication systems, causing potential space weather h...

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Veröffentlicht in:Journal of geophysical research. Space physics 2024-06, Vol.129 (6), p.n/a
Hauptverfasser: Aa, Ercha, Dzwill, Patricia, Zhang, Shun‐Rong, Erickson, Philip J.
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container_issue 6
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creator Aa, Ercha
Dzwill, Patricia
Zhang, Shun‐Rong
Erickson, Philip J.
description The storm‐enhanced density (SED) is a large‐scale midlatitude ionospheric electron density enhancement in the local afternoon sector, which exhibits substantial spatial gradients and thus can impose detrimental effects on modern navigation and communication systems, causing potential space weather hazards. This study has identified a comprehensive list of 49 SED events over the continental US and adjacent regions, by examining strong geomagnetic storms occurring between 2000 and 2023. The ground‐based Global Navigation Satellite System (GNSS) total electron content and data from a new TEC‐based ionospheric data assimilation system were used to analyze the characteristics of SED. For each derived SED events, we have quantified its morphology by employing a Gaussian function to parameterize key characteristics of the SED, such as the plume intensity, central longitude, and half‐width. A statistical analysis of SEDs was conducted for the first time to characterize their climatological features. We found that the SED distribution exhibits a higher peak intensity and a narrower width as geomagnetic activity strengthens. The peak intensity of SED has maximum values around the equinoxes in their seasonal distribution. Additionally, we observed a solar cycle dependence in the SED distribution, with more events occurring during the solar maximum and declining phases compared to the solar minimum. SED plumes exhibit a sub‐corotation feature with respect to the Earth, characterized by a westward drift speed between 50 and 400 m/s and a duration of 3–10 hr. These information advanced the current understanding of the spatial‐temporal variation of SED characteristics. Key Points A comprehensive list of 49 storm‐enhanced density (SED) events over the continental US was identified for periods of intense geomagnetic storms during 2000–2023 A first‐time statistical analysis of SEDs demonstrates their geomagnetic dependence, seasonal distribution, and solar cycle variation SEDs demonstrate a sub‐corotate feature with respect to the Earth, with westward drifting speeds of 50–400 m/s and a duration of 3–10 hr
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Additionally, we observed a solar cycle dependence in the SED distribution, with more events occurring during the solar maximum and declining phases compared to the solar minimum. SED plumes exhibit a sub‐corotation feature with respect to the Earth, characterized by a westward drift speed between 50 and 400 m/s and a duration of 3–10 hr. These information advanced the current understanding of the spatial‐temporal variation of SED characteristics. Key Points A comprehensive list of 49 storm‐enhanced density (SED) events over the continental US was identified for periods of intense geomagnetic storms during 2000–2023 A first‐time statistical analysis of SEDs demonstrates their geomagnetic dependence, seasonal distribution, and solar cycle variation SEDs demonstrate a sub‐corotate feature with respect to the Earth, with westward drifting speeds of 50–400 m/s and a duration of 3–10 hr</description><identifier>ISSN: 2169-9380</identifier><identifier>EISSN: 2169-9402</identifier><identifier>DOI: 10.1029/2024JA032750</identifier><language>eng</language><publisher>Washington: Blackwell Publishing Ltd</publisher><subject>Communications systems ; Data assimilation ; Data collection ; Electron density ; Geomagnetic activity ; geomagnetic dependence ; Geomagnetic storms ; Geomagnetism ; Global navigation satellite system ; GNSS TEC ; Hazard identification ; Ionospheric electron density ; Ionospheric electrons ; ionospheric storm ; Magnetic storms ; Morphology ; Navigation satellites ; Navigation systems ; Plumes ; Satellites ; Seasonal distribution ; SED speed and duration ; Solar cycle ; solar cycle variation ; Solar maximum ; Solar minimum ; Space weather ; Statistical analysis ; Storms ; storm‐enhanced density ; Total Electron Content ; Weather hazards</subject><ispartof>Journal of geophysical research. 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subjects Communications systems
Data assimilation
Data collection
Electron density
Geomagnetic activity
geomagnetic dependence
Geomagnetic storms
Geomagnetism
Global navigation satellite system
GNSS TEC
Hazard identification
Ionospheric electron density
Ionospheric electrons
ionospheric storm
Magnetic storms
Morphology
Navigation satellites
Navigation systems
Plumes
Satellites
Seasonal distribution
SED speed and duration
Solar cycle
solar cycle variation
Solar maximum
Solar minimum
Space weather
Statistical analysis
Storms
storm‐enhanced density
Total Electron Content
Weather hazards
title A Statistical Analysis of the Morphology of Storm‐Enhanced Density Plumes Over the North American Sector
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