Evidence of CME‐Magnetospheric Shock Disturbance of the D‐Region Observed in the VLF Signal

The observation of the D‐region response to the interplanetary shock (IS) during the storm of 17 March 2015 is carried out using two very low frequency (VLF) transmitter signals (NRK and GQD) recorded at Algiers and Tunis. Data from THEMIS‐E and RBSP are used to correlate between the ground and sate...

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Veröffentlicht in:Journal of geophysical research. Space physics 2023-08, Vol.128 (8), p.n/a
Hauptverfasser: NaitAmor, S., Ikhlef, R., Ammar, A., Ghalila, H.
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container_issue 8
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creator NaitAmor, S.
Ikhlef, R.
Ammar, A.
Ghalila, H.
description The observation of the D‐region response to the interplanetary shock (IS) during the storm of 17 March 2015 is carried out using two very low frequency (VLF) transmitter signals (NRK and GQD) recorded at Algiers and Tunis. Data from THEMIS‐E and RBSP are used to correlate between the ground and satellite observations. The important finding is the wavy structure of the perturbations observed on the two VLF signals tens of seconds after the space detection of the shock, in concordance with the RBSP electric field measurements. The measured VLF signal amplitude and phase perturbations were: −0.65 dB, 5.81° for NRK and −0.12 dB, −126° for GQD measured at Algiers. For Tunis receiver, the perturbations were: −0.58 dB, 4.7° for NRK and 0.15 dB, −1.19° for GQD. In addition to the observations, simulations of the NRK signal perturbations were done using the long wavelength propagating capability code to determine the electron density modification that lead to the measured perturbations. The simulation results showed that the modified Wait's parameters above the NRK transmitter were: 80.391 km for h′ and 0.43 km−1 for β in the case of NRK‐Tunis path. Concerning the NRK‐Algiers path, the simulation gave 80.316 km for h′ and 0.431 km−1 for β. From these parameters values, the modified electron density was not important to explain the observed perturbations. Therefore, the IS effect could be explained by induced heating of the ionosphere due to the penetration of the electric field which leads to the changes of the ionospheric conductivity. Key Points The first time observation of the solar wind shock with the magnetosphere effect on the D region of the ionosphere The work aims to understand the coupling between the magnetosphere and the ionosphere The very low frequency signal data were used to show the D region disturbance due to the interplanetary shock
doi_str_mv 10.1029/2023JA031330
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Data from THEMIS‐E and RBSP are used to correlate between the ground and satellite observations. The important finding is the wavy structure of the perturbations observed on the two VLF signals tens of seconds after the space detection of the shock, in concordance with the RBSP electric field measurements. The measured VLF signal amplitude and phase perturbations were: −0.65 dB, 5.81° for NRK and −0.12 dB, −126° for GQD measured at Algiers. For Tunis receiver, the perturbations were: −0.58 dB, 4.7° for NRK and 0.15 dB, −1.19° for GQD. In addition to the observations, simulations of the NRK signal perturbations were done using the long wavelength propagating capability code to determine the electron density modification that lead to the measured perturbations. The simulation results showed that the modified Wait's parameters above the NRK transmitter were: 80.391 km for h′ and 0.43 km−1 for β in the case of NRK‐Tunis path. Concerning the NRK‐Algiers path, the simulation gave 80.316 km for h′ and 0.431 km−1 for β. From these parameters values, the modified electron density was not important to explain the observed perturbations. Therefore, the IS effect could be explained by induced heating of the ionosphere due to the penetration of the electric field which leads to the changes of the ionospheric conductivity. Key Points The first time observation of the solar wind shock with the magnetosphere effect on the D region of the ionosphere The work aims to understand the coupling between the magnetosphere and the ionosphere The very low frequency signal data were used to show the D region disturbance due to the interplanetary shock</description><identifier>ISSN: 2169-9380</identifier><identifier>EISSN: 2169-9402</identifier><identifier>DOI: 10.1029/2023JA031330</identifier><language>eng</language><publisher>Washington: Blackwell Publishing Ltd</publisher><subject>Electric fields ; Electron density ; Ionosphere ; Ionospheric conductivity ; Magnetospheres ; magnetosphere‐ionosphere coupling ; Parameter modification ; Perturbation ; Satellite observation ; Simulation ; space shock effect on the D region ; Very Low Frequencies ; VLF signal anomalies ; Wave propagation</subject><ispartof>Journal of geophysical research. Space physics, 2023-08, Vol.128 (8), p.n/a</ispartof><rights>2023. 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Space physics</title><description>The observation of the D‐region response to the interplanetary shock (IS) during the storm of 17 March 2015 is carried out using two very low frequency (VLF) transmitter signals (NRK and GQD) recorded at Algiers and Tunis. Data from THEMIS‐E and RBSP are used to correlate between the ground and satellite observations. The important finding is the wavy structure of the perturbations observed on the two VLF signals tens of seconds after the space detection of the shock, in concordance with the RBSP electric field measurements. The measured VLF signal amplitude and phase perturbations were: −0.65 dB, 5.81° for NRK and −0.12 dB, −126° for GQD measured at Algiers. For Tunis receiver, the perturbations were: −0.58 dB, 4.7° for NRK and 0.15 dB, −1.19° for GQD. In addition to the observations, simulations of the NRK signal perturbations were done using the long wavelength propagating capability code to determine the electron density modification that lead to the measured perturbations. The simulation results showed that the modified Wait's parameters above the NRK transmitter were: 80.391 km for h′ and 0.43 km−1 for β in the case of NRK‐Tunis path. Concerning the NRK‐Algiers path, the simulation gave 80.316 km for h′ and 0.431 km−1 for β. From these parameters values, the modified electron density was not important to explain the observed perturbations. Therefore, the IS effect could be explained by induced heating of the ionosphere due to the penetration of the electric field which leads to the changes of the ionospheric conductivity. 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Space physics</jtitle></facets><delivery><delcategory>Remote Search Resource</delcategory><fulltext>fulltext</fulltext></delivery><addata><au>NaitAmor, S.</au><au>Ikhlef, R.</au><au>Ammar, A.</au><au>Ghalila, H.</au><format>journal</format><genre>article</genre><ristype>JOUR</ristype><atitle>Evidence of CME‐Magnetospheric Shock Disturbance of the D‐Region Observed in the VLF Signal</atitle><jtitle>Journal of geophysical research. Space physics</jtitle><date>2023-08</date><risdate>2023</risdate><volume>128</volume><issue>8</issue><epage>n/a</epage><issn>2169-9380</issn><eissn>2169-9402</eissn><abstract>The observation of the D‐region response to the interplanetary shock (IS) during the storm of 17 March 2015 is carried out using two very low frequency (VLF) transmitter signals (NRK and GQD) recorded at Algiers and Tunis. Data from THEMIS‐E and RBSP are used to correlate between the ground and satellite observations. The important finding is the wavy structure of the perturbations observed on the two VLF signals tens of seconds after the space detection of the shock, in concordance with the RBSP electric field measurements. The measured VLF signal amplitude and phase perturbations were: −0.65 dB, 5.81° for NRK and −0.12 dB, −126° for GQD measured at Algiers. For Tunis receiver, the perturbations were: −0.58 dB, 4.7° for NRK and 0.15 dB, −1.19° for GQD. In addition to the observations, simulations of the NRK signal perturbations were done using the long wavelength propagating capability code to determine the electron density modification that lead to the measured perturbations. The simulation results showed that the modified Wait's parameters above the NRK transmitter were: 80.391 km for h′ and 0.43 km−1 for β in the case of NRK‐Tunis path. Concerning the NRK‐Algiers path, the simulation gave 80.316 km for h′ and 0.431 km−1 for β. From these parameters values, the modified electron density was not important to explain the observed perturbations. Therefore, the IS effect could be explained by induced heating of the ionosphere due to the penetration of the electric field which leads to the changes of the ionospheric conductivity. Key Points The first time observation of the solar wind shock with the magnetosphere effect on the D region of the ionosphere The work aims to understand the coupling between the magnetosphere and the ionosphere The very low frequency signal data were used to show the D region disturbance due to the interplanetary shock</abstract><cop>Washington</cop><pub>Blackwell Publishing Ltd</pub><doi>10.1029/2023JA031330</doi><tpages>11</tpages><orcidid>https://orcid.org/0000-0001-9938-5059</orcidid><orcidid>https://orcid.org/0000-0001-5180-4250</orcidid><orcidid>https://orcid.org/0000-0001-5105-3389</orcidid></addata></record>
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subjects Electric fields
Electron density
Ionosphere
Ionospheric conductivity
Magnetospheres
magnetosphere‐ionosphere coupling
Parameter modification
Perturbation
Satellite observation
Simulation
space shock effect on the D region
Very Low Frequencies
VLF signal anomalies
Wave propagation
title Evidence of CME‐Magnetospheric Shock Disturbance of the D‐Region Observed in the VLF Signal
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