Radio monitoring of dynamic processes in the ionosphere over China during the partial solar eclipse of 11 August 2018

Q Guo, LF Chernogor, KP Garmash… - Radio …, 2020 - Wiley Online Library
We briefly describe the multifrequency multiple‐path radio system and illustrate its
observational capabilities by performing, as an example, the study of dynamic processes …

[HTML][HTML] Multi-Instrument Observations of the Ionospheric Response Caused by the 8 April 2024 Total Solar Eclipse

H Zhang, T Zhang, X Zhang, Y Yuan, Y Wang, Y Ma - Remote Sensing, 2024 - mdpi.com
This paper investigates ionospheric response characteristics from multiple perspectives
based on globally distributed GNSS data and products, ionosonde data, FORMOSAT …

Physical Processes Driving the Response of the F2 Region Ionosphere to the 21 August 2017 Solar Eclipse at Millstone Hill

W Wang, T Dang, J Lei, S Zhang… - Journal of …, 2019 - Wiley Online Library
The high‐resolution thermosphere‐ionosphere‐electrodynamics general circulation model
has been used to investigate the response of F2 region electron density (Ne) at Millstone Hill …

Ionospheric response to the solar eclipse of 21 August 2017 in Millstone Hill (42N) observations

LP Goncharenko, PJ Erickson… - Geophysical …, 2018 - Wiley Online Library
This study examines the ionospheric changes associated with the solar eclipse of 21 August
2017. The effects associated with the passage of the eclipse shadow were observed more …

First report of an eclipse from Chilean ionosonde observations: Comparison with total electron content estimations and the modeled maximum electron concentration …

M Bravo, M Martínez‐Ledesma… - Journal of …, 2020 - Wiley Online Library
The ionospheric responses to the total solar eclipse on 2 July 2019 over low latitudes in
southern South America are presented. Ionosonde observations were used within the totality …

[HTML][HTML] Response of the mid-latitude ionosphere to the solar eclipse on 25 October 2022: Results of F2–layer vertical sounding

LY Emelyanov, OV Bogomaz, LF Chernogor… - Advances in Space …, 2024 - Elsevier
The results of observations of the critical frequency (fo F2), ionospheric F2 peak electron
density (N m F2) and peak height (hm F2) of the ionosphere over Kharkiv (Ukraine, 49.6° N …

Ionospheric effects of the June 10, 2021, solar eclipse in the Arctic

LF Chernogor, YB Mylovanov - Kinematics and Physics of Celestial Bodies, 2022 - Springer
Solar eclipses (SEs) cause a variety of processes in all geospheres. There is a decrease of
electron density, as well as electron, ion, and neutral temperature, in the ionosphere; the …

Ionospheric processes during the partial solar eclipse above Kharkiv on June 10, 2021

LF Chernogor, KP Garmash - Kinematics and Physics of Celestial Bodies, 2022 - Springer
A solar eclipse (SE) provides a researcher with a rare opportunity to follow the dynamics of
the Earth's system (its shells)—the atmosphere, the ionosphere, and the magnetosphere …

Effects from the June 10, 2021 solar eclipse in the high-latitude ionosphere: Results of GPS observations

L Chernogor, Y Mylovanov… - Radio Physics and Radio …, 2022 - ui.adsabs.harvard.edu
Abstract Subject and Purpose. The unique natural phenomena which solar eclipses are can
activate coupling between the subsystems of the Earth–atmosphere–ionosphere …

Ionospheric effects of the August 11, 2018, solar eclipse over the People's Republic of China

LF Chernogor, YB Mylovanov - Kinematics and Physics of Celestial Bodies, 2020 - Springer
The purpose of the work is to describe ionospheric effects of the August 11, 2018, partial
solar eclipse (SE) that occurred over the People's Republic of China as observed via GPS …