Ionosphere Sounding for Pre-seismic Anomalies Identification (INSPIRE): Results of the Project and Perspectives for the Short-Term Earthquake Forecast

The INSPIRE project was dedicated to the study of physical processes and their effects in ionosphere which could be determined as earthquake precursors together with detailed description of the methodology of ionospheric pre-seismic anomalies definition. It was initiated by ESA and carried out by an...

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Main Authors: Sergey Pulinets, Andrzej Krankowski, Manuel Hernandez-Pajares, Sergio Marra, Iurii Cherniak, Irina Zakharenkova, Hanna Rothkaehl, Kacper Kotulak, Dmitry Davidenko, Leszek Blaszkiewicz, Adam Fron, Pawel Flisek, Alberto Garcia Rigo, Pavel Budnikov
Format: Article
Language:English
Published: Frontiers Media S.A. 2021-04-01
Series:Frontiers in Earth Science
Subjects:
TEC
Online Access:https://www.frontiersin.org/articles/10.3389/feart.2021.610193/full
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author Sergey Pulinets
Sergey Pulinets
Andrzej Krankowski
Manuel Hernandez-Pajares
Sergio Marra
Iurii Cherniak
Irina Zakharenkova
Hanna Rothkaehl
Kacper Kotulak
Dmitry Davidenko
Leszek Blaszkiewicz
Adam Fron
Pawel Flisek
Alberto Garcia Rigo
Pavel Budnikov
spellingShingle Sergey Pulinets
Sergey Pulinets
Andrzej Krankowski
Manuel Hernandez-Pajares
Sergio Marra
Iurii Cherniak
Irina Zakharenkova
Hanna Rothkaehl
Kacper Kotulak
Dmitry Davidenko
Leszek Blaszkiewicz
Adam Fron
Pawel Flisek
Alberto Garcia Rigo
Pavel Budnikov
Ionosphere Sounding for Pre-seismic Anomalies Identification (INSPIRE): Results of the Project and Perspectives for the Short-Term Earthquake Forecast
Frontiers in Earth Science
earthquake precursors
LAIC model
ionosphere
TEC
GNSS
LEO-satellites
author_facet Sergey Pulinets
Sergey Pulinets
Andrzej Krankowski
Manuel Hernandez-Pajares
Sergio Marra
Iurii Cherniak
Irina Zakharenkova
Hanna Rothkaehl
Kacper Kotulak
Dmitry Davidenko
Leszek Blaszkiewicz
Adam Fron
Pawel Flisek
Alberto Garcia Rigo
Pavel Budnikov
author_sort Sergey Pulinets
title Ionosphere Sounding for Pre-seismic Anomalies Identification (INSPIRE): Results of the Project and Perspectives for the Short-Term Earthquake Forecast
title_short Ionosphere Sounding for Pre-seismic Anomalies Identification (INSPIRE): Results of the Project and Perspectives for the Short-Term Earthquake Forecast
title_full Ionosphere Sounding for Pre-seismic Anomalies Identification (INSPIRE): Results of the Project and Perspectives for the Short-Term Earthquake Forecast
title_fullStr Ionosphere Sounding for Pre-seismic Anomalies Identification (INSPIRE): Results of the Project and Perspectives for the Short-Term Earthquake Forecast
title_full_unstemmed Ionosphere Sounding for Pre-seismic Anomalies Identification (INSPIRE): Results of the Project and Perspectives for the Short-Term Earthquake Forecast
title_sort ionosphere sounding for pre-seismic anomalies identification (inspire): results of the project and perspectives for the short-term earthquake forecast
publisher Frontiers Media S.A.
series Frontiers in Earth Science
issn 2296-6463
publishDate 2021-04-01
description The INSPIRE project was dedicated to the study of physical processes and their effects in ionosphere which could be determined as earthquake precursors together with detailed description of the methodology of ionospheric pre-seismic anomalies definition. It was initiated by ESA and carried out by an international consortium. The full set of key parameters of the ionospheric plasma was selected based on the retrospective analysis of the ground-based and satellite measurements of pre-seismic anomalies. Using this classification the multi-instrumental database of worldwide relevant ionospheric measurements (ionosonde and GNSS networks, LEO-satellites with in situ probes including DEMETER and FORMOSAT/COSMIC ROC missions) was developed for the time intervals related to selected test cases. As statistical processing shows, the main ionospheric precursors appear approximately 5 days before the earthquake within the time interval of 30 days before and 15 days after an earthquake event. The physical mechanisms of the ionospheric pre-seismic anomalies generation from ground to the ionosphere altitudes were formulated within framework of the Lithosphere-Atmosphere-Ionosphere Coupling (LAIC) model. The processes of precursor’s development were analyzed starting from the crustal movements, radon emission and air ionization, thermal and atmospheric anomalies, electric field and electromagnetic emissions generation, variations of the ionospheric plasma parameters, in particular vertical TEC and vertical profiles of the electron concentration. The assessment of the LAIC model performance with definition of performance criteria for earthquake forecasting probability has been done in statistical and numerical simulation domains of the Global Electric Circuit. The numerical simulations of the earthquake preparation process as an open complex system from start of the final stage of earthquake preparation up to the final point–main shock confirms that in the temporal domain the ionospheric precursors are one of the most late in the sequence of precursors. The general algorithm for the identification of the ionospheric precursors was formalized which also takes into account the external Space Weather factors able to generate the false alarms. The importance of the special stable pattern called the “precursor mask” was highlighted which is based on self-similarity of pre-seismic ionospheric variations. The role of expert decision in pre-seismic anomalies interpretation for generation of seismic warning is important as well. The algorithm performance of the LAIC seismo-ionospheric effect detection module has been demonstrated using the L’Aquila 2009 earthquake as a case study. The results of INSPIRE project have demonstrated that the ionospheric anomalies registered before the strong earthquakes could be used as reliable precursors. The detailed classification of the pre-seismic anomalies was presented in different regions of the ionosphere and signatures of the pre-seismic anomalies as detected by ground and satellite based instruments were described what clarified methodology of the precursor’s identification from ionospheric multi-instrumental measurements. Configuration for the dedicated multi-observation experiment and satellite payload was proposed for the future implementation of the INSPIRE project results. In this regard the multi-instrument set can be divided into two groups: space equipment and ground-based support, which could be used for real-time monitoring. Together with scientific and technical tasks the set of political, logistic and administrative problems (including certification of approaches by seismological community, juridical procedures by the governmental authorities) should be resolved for the real earthquake forecast effectuation.
topic earthquake precursors
LAIC model
ionosphere
TEC
GNSS
LEO-satellites
url https://www.frontiersin.org/articles/10.3389/feart.2021.610193/full
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spelling doaj-78beeffd6e4848a2888570ff2ee35ecb2021-04-08T05:38:56ZengFrontiers Media S.A.Frontiers in Earth Science2296-64632021-04-01910.3389/feart.2021.610193610193Ionosphere Sounding for Pre-seismic Anomalies Identification (INSPIRE): Results of the Project and Perspectives for the Short-Term Earthquake ForecastSergey Pulinets0Sergey Pulinets1Andrzej Krankowski2Manuel Hernandez-Pajares3Sergio Marra4Iurii Cherniak5Irina Zakharenkova6Hanna Rothkaehl7Kacper Kotulak8Dmitry Davidenko9Leszek Blaszkiewicz10Adam Fron11Pawel Flisek12Alberto Garcia Rigo13Pavel Budnikov14University of Warmia and Mazury in Olsztyn, (UWM), Space Radio-Diagnostics Research Centre, Olsztyn, PolandSpace Research Institute of Russian Academy of Sciences, (IKI), Moscow, RussiaUniversity of Warmia and Mazury in Olsztyn, (UWM), Space Radio-Diagnostics Research Centre, Olsztyn, PolandPolytechnic University of Catalonia (UPC), Barcelona, SpainEuropean Space Research and Technology Centre ESA/ESTEC, Noordwijk, NetherlandsUniversity of Warmia and Mazury in Olsztyn, (UWM), Space Radio-Diagnostics Research Centre, Olsztyn, PolandUniversity of Warmia and Mazury in Olsztyn, (UWM), Space Radio-Diagnostics Research Centre, Olsztyn, PolandEuropean Space Research and Technology Centre ESA/ESTEC, Noordwijk, NetherlandsUniversity of Warmia and Mazury in Olsztyn, (UWM), Space Radio-Diagnostics Research Centre, Olsztyn, PolandSpace Research Institute of Russian Academy of Sciences, (IKI), Moscow, RussiaUniversity of Warmia and Mazury in Olsztyn, (UWM), Space Radio-Diagnostics Research Centre, Olsztyn, PolandUniversity of Warmia and Mazury in Olsztyn, (UWM), Space Radio-Diagnostics Research Centre, Olsztyn, PolandUniversity of Warmia and Mazury in Olsztyn, (UWM), Space Radio-Diagnostics Research Centre, Olsztyn, PolandPolytechnic University of Catalonia (UPC), Barcelona, SpainFedorov Institute of Applied Geophysics, IPG, Moscow, RussiaThe INSPIRE project was dedicated to the study of physical processes and their effects in ionosphere which could be determined as earthquake precursors together with detailed description of the methodology of ionospheric pre-seismic anomalies definition. It was initiated by ESA and carried out by an international consortium. The full set of key parameters of the ionospheric plasma was selected based on the retrospective analysis of the ground-based and satellite measurements of pre-seismic anomalies. Using this classification the multi-instrumental database of worldwide relevant ionospheric measurements (ionosonde and GNSS networks, LEO-satellites with in situ probes including DEMETER and FORMOSAT/COSMIC ROC missions) was developed for the time intervals related to selected test cases. As statistical processing shows, the main ionospheric precursors appear approximately 5 days before the earthquake within the time interval of 30 days before and 15 days after an earthquake event. The physical mechanisms of the ionospheric pre-seismic anomalies generation from ground to the ionosphere altitudes were formulated within framework of the Lithosphere-Atmosphere-Ionosphere Coupling (LAIC) model. The processes of precursor’s development were analyzed starting from the crustal movements, radon emission and air ionization, thermal and atmospheric anomalies, electric field and electromagnetic emissions generation, variations of the ionospheric plasma parameters, in particular vertical TEC and vertical profiles of the electron concentration. The assessment of the LAIC model performance with definition of performance criteria for earthquake forecasting probability has been done in statistical and numerical simulation domains of the Global Electric Circuit. The numerical simulations of the earthquake preparation process as an open complex system from start of the final stage of earthquake preparation up to the final point–main shock confirms that in the temporal domain the ionospheric precursors are one of the most late in the sequence of precursors. The general algorithm for the identification of the ionospheric precursors was formalized which also takes into account the external Space Weather factors able to generate the false alarms. The importance of the special stable pattern called the “precursor mask” was highlighted which is based on self-similarity of pre-seismic ionospheric variations. The role of expert decision in pre-seismic anomalies interpretation for generation of seismic warning is important as well. The algorithm performance of the LAIC seismo-ionospheric effect detection module has been demonstrated using the L’Aquila 2009 earthquake as a case study. The results of INSPIRE project have demonstrated that the ionospheric anomalies registered before the strong earthquakes could be used as reliable precursors. The detailed classification of the pre-seismic anomalies was presented in different regions of the ionosphere and signatures of the pre-seismic anomalies as detected by ground and satellite based instruments were described what clarified methodology of the precursor’s identification from ionospheric multi-instrumental measurements. Configuration for the dedicated multi-observation experiment and satellite payload was proposed for the future implementation of the INSPIRE project results. In this regard the multi-instrument set can be divided into two groups: space equipment and ground-based support, which could be used for real-time monitoring. Together with scientific and technical tasks the set of political, logistic and administrative problems (including certification of approaches by seismological community, juridical procedures by the governmental authorities) should be resolved for the real earthquake forecast effectuation.https://www.frontiersin.org/articles/10.3389/feart.2021.610193/fullearthquake precursorsLAIC modelionosphereTECGNSSLEO-satellites