低纬电离层明显纬向差异的总体形态

IF 2.9 2区 地球科学 Q2 ASTRONOMY & ASTROPHYSICS Journal of Geophysical Research: Space Physics Pub Date : 2024-12-28 DOI:10.1029/2024JA033165
Yuyan Yang, Libo Liu, Wenbo Li, Xiukuan Zhao, Yiding Chen, Huijun Le, Ruilong Zhang, Jianyong Lu
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引用次数: 0

摘要

本文报道了亚洲扇区低纬度电离层上北斗静止轨道(GEO)卫星总电子含量(TEC)数据的明显地带性差异的总体形态。利用2019年11月1日至2022年11月30日GXZY接收机(26.2°N, 110.6°E)的GEO TEC观测数据,选取了64个地磁安静条件下突出的地带性差异事件。我们通过麻省理工学院的全球TEC产品澄清了与这些突出的低纬度纬向差异事件相对应的全球经度结构。在GEO TEC资料中引起明显地带性差异特征的构造主要分为大尺度波状构造和具有特征的区域性构造。其中,大尺度波浪状构造引起的地带性差异特征突出19例,区域经度构造引起的地带性差异突出45例。由大尺度波状结构产生的突出的地域性差异可以用波分量的逐日变化来解释,这种变化产生振幅叠加并放大了一个地区的波峰强度。具有特征的区域构造覆盖约10°-30°的纵向范围。此外,我们利用电离层连接探索者任务在磁赤道的等离子体漂移速度数据讨论了这种小纵向结构的可能原因。等离子体垂直和纬向漂移的精细经度结构可能导致某些事件中明显的纬向差异特征。
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Overall Morphology of Prominent Zonal Differences in Low Latitude Ionosphere

This paper reports the overall morphology of prominent zonal differences in total electron content (TEC) data from Beidou geostationary orbit (GEO) satellites in the low latitude ionosphere over the Asia sector. Using GEO TEC observations from the GXZY receiver (26.2°N, 110.6°E) from 1 November 2019 to 30 November 2022, 64 prominent zonal difference events under geomagnetic quiet conditions were selected. We clarify the global longitude structures corresponding to these prominent zonal difference events at low latitudes through the global TEC products from the Massachusetts Institute of Technology. The structures that can cause the prominent zonal difference features in GEO TEC data are mainly divided into large-scale wave-like structures and featured regional structures. Among them, 19 cases of prominent zonal difference features were caused by large-scale wave-like structures, and 45 cases were caused by regional longitude structures. Prominent zonal differences generated from Large-scale wave-like structures are explained by the day-to-day variation of wave components, which creates an amplitude superposition and amplifies the crest intensity in a region. The featured regional structures cover a longitudinal range of about 10°–30°. In addition, we discussed the possible reasons for this small longitudinal structure by utilizing plasma drift velocity data at the magnetic equator from the Ionospheric Connection Explorer mission. The delicate longitude structures of vertical and zonal plasma drift likely contribute to the prominent zonal difference features in certain events.

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来源期刊
Journal of Geophysical Research: Space Physics
Journal of Geophysical Research: Space Physics Earth and Planetary Sciences-Geophysics
CiteScore
5.30
自引率
35.70%
发文量
570
期刊最新文献
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