領域外・複数領域(M) | |||
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セッション小記号 | 計測技術・研究手法(TT) | ||
セッションID | M-TT36 | ||
タイトル | 和文 | Recent advances in forecasting/nowcasting and seismic hazard reduction | |
英文 | Recent advances in forecasting/nowcasting and seismic hazard reduction | ||
タイトル短縮名 | 和文 | Advances in forecasting/nowcasting | |
英文 | Advances in forecasting/nowcasting | ||
代表コンビーナ | 氏名 | 和文 | Yangkang Chen |
英文 | Yangkang Chen | ||
所属 | 和文 | University of Texas at Austin | |
英文 | University of Texas at Austin | ||
共同コンビーナ 1 | 氏名 | 和文 | John B Rundle |
英文 | John B Rundle | ||
所属 | 和文 | University of California Davis | |
英文 | University of California Davis | ||
共同コンビーナ 2 | 氏名 | 和文 | Ouzounov Dimitar |
英文 | Dimitar Ouzounov | ||
所属 | 和文 | Center of Excellence in Earth Systems Modeling & Observations (CEESMO) , Schmid College of Science & Technology Chapman University, Orange, California, USA | |
英文 | Chapman University | ||
共同コンビーナ 3 | 氏名 | 和文 | 服部 克巳 |
英文 | Katsumi Hattori | ||
所属 | 和文 | 千葉大学大学院理学研究院 | |
英文 | Department of Earth Sciences, Graduate School of Science, Chiba University | ||
発表言語 | E | ||
スコープ | 和文 |
Advanced data analysis technologies including machine learning (ML) and artificial intelligence (AI) have brought significant progress in integrating different observations (e.g., acoustic, elastic, remote sensing), as well as understanding the spatial-temporal correlations of earthquakes, which makes the previously intractable forecasting and nowcasting more possible. In addition, new sensing technologies enable the observation and exploration of earthquake precursor signals in an unprecedently high spatio-temporal resolution. These new signal processing techniques and high-quality and high-resolution datasets pave the way for multi-disciplinary studies of earthquake nucleation mechanisms and predictions, as well as advances in seismic hazard reduction. In this session, we welcome the contribution from a wide range of advances in the field of earthquake forecasting and nowcasting including but not limited to machine learning and AI-enhanced methods to integrate multi-purpose datasets; advances in understanding earthquake nucleation from laboratory to field; benchmark real case studies; new sensing and processing technologies for capturing the pre-earthquake signals; insights of earthquake hazard reduction in the era of predictable earthquakes. |
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英文 |
Advanced data analysis technologies including machine learning (ML) and artificial intelligence (AI) have brought significant progress in integrating different observations (e.g., acoustic, elastic, remote sensing), as well as understanding the spatial-temporal correlations of earthquakes, which makes the previously intractable forecasting and nowcasting more possible. In addition, new sensing technologies enable the observation and exploration of earthquake precursor signals in an unprecedently high spatio-temporal resolution. These new signal processing techniques and high-quality and high-resolution datasets pave the way for multi-disciplinary studies of earthquake nucleation mechanisms and predictions, as well as advances in seismic hazard reduction. In this session, we welcome the contribution from a wide range of advances in the field of earthquake forecasting and nowcasting including but not limited to machine learning and AI-enhanced methods to integrate multi-purpose datasets; advances in understanding earthquake nucleation from laboratory to field; benchmark real case studies; new sensing and processing technologies for capturing the pre-earthquake signals; insights of earthquake hazard reduction in the era of predictable earthquakes. |
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発表方法 | 口頭および(または)ポスターセッション | ||
ジョイントセッション | AGU |