固体地球科学(S) | |||
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セッション小記号 | 地震学(SS) | ||
セッションID | S-SS04 | ||
タイトル | 和文 | New methods for seismicity characterization | |
英文 | New methods for seismicity characterization | ||
タイトル短縮名 | 和文 | New methods for seismicity characterization | |
英文 | New seismic analysis methods | ||
代表コンビーナ | 氏名 | 和文 | Francesco Grigoli |
英文 | Francesco Grigoli | ||
所属 | 和文 | ETH-Zurich, Swiss Seismological Service | |
英文 | ETH-Zurich, Swiss Seismological Service | ||
共同コンビーナ 1 | 氏名 | 和文 | 加藤 愛太郎 |
英文 | Aitaro Kato | ||
所属 | 和文 | 東京大学地震研究所 | |
英文 | Earthquake Research Institute, the University of Tokyo | ||
共同コンビーナ 2 | 氏名 | 和文 | 青木 陽介 |
英文 | Yosuke Aoki | ||
所属 | 和文 | 東京大学地震研究所 | |
英文 | Earthquake Research Institute, University of Tokyo | ||
共同コンビーナ 3 | 氏名 | 和文 | Claudio Satriano |
英文 | Claudio Satriano | ||
所属 | 和文 | Institut de Physique du Globe de Paris | |
英文 | Institut de Physique du Globe de Paris | ||
発表言語 | E | ||
スコープ | 和文 | In the last two decades the number of high quality seismic instruments being installed around the world has grown exponentially and probably will continue to grow in the coming decades. This data explosion has shown the limits of the current standard routine seismic analysis, often performed manually by seismologists. Exploiting the massive amount of data is a challenge that can be overcome by using new generation, fully automated and noise robust seismic processing techniques. In the last years waveform-based detection and location methods have grown in popularity and their application have dramatically improved seismic monitoring capability. More recently, Machine Learning techniques, which are a perfect playground for data-intensive applications, are showing promising results in seismicity characterization applications opening new horizons for the development of innovative, fully automated and noise robust seismic analysis methods. Such techniques are particularly useful when working with datasets characterised by a massive number of weak events with low signal-to-noise ratio, such as those collected in induced seismicity and volcanic monitoring operations. This session aims to bring to light new methods that can be applied to large datasets, either retro-actively or in near-real time, to characterize seismicity (i.e. detection, location, magnitude and source mechanisms estimation) at different scales and in different environments. We thus encourage contributions that demonstrate how the proposed methods helps improve our understanding of earthquake and/or volcanic processes. | |
英文 | In the last two decades the number of high quality seismic instruments being installed around the world has grown exponentially and probably will continue to grow in the coming decades. This data explosion has shown the limits of the current standard routine seismic analysis, often performed manually by seismologists. Exploiting the massive amount of data is a challenge that can be overcome by using new generation, fully automated and noise robust seismic processing techniques. In the last years waveform-based detection and location methods have grown in popularity and their application have dramatically improved seismic monitoring capability. More recently, Machine Learning techniques, which are a perfect playground for data-intensive applications, are showing promising results in seismicity characterization applications opening new horizons for the development of innovative, fully automated and noise robust seismic analysis methods. Such techniques are particularly useful when working with datasets characterised by a massive number of weak events with low signal-to-noise ratio, such as those collected in induced seismicity and volcanic monitoring operations. This session aims to bring to light new methods that can be applied to large datasets, either retro-actively or in near-real time, to characterize seismicity (i.e. detection, location, magnitude and source mechanisms estimation) at different scales and in different environments. We thus encourage contributions that demonstrate how the proposed methods helps improve our understanding of earthquake and/or volcanic processes. | ||
発表方法 | 口頭および(または)ポスターセッション | ||
招待講演 | Hilary Chang (Memorial University of Newfoundland) Marius Kriegerowski (German Research Centre for Geosciences Potsdam, Germany) Natalia Poiata (Institut de Physique du Globe de Paris) |
時間 | 講演番号 | タイトル | 発表者 | 予稿原稿 |
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口頭発表 5月26日 AM2 | ||||
10:45 - 11:00 | SSS04-01 | MyShake: A global smartphone seismic network to characterize urban earthquakes | Richard M Allen | 予稿 |
11:00 - 11:15 | SSS04-02 | Full waveform-based automatic monitoring of microseismic activity using high sampling rate records: application to Garpenberg mine (Sweden) | Natalia Poiata | 予稿 |
11:15 - 11:30 | SSS04-03 | A deep convolutional neural network for localizing and detecting earthquake swarm activity based on full waveforms: Chances, challenges and questions | Marius Kriegerowski | 予稿 |
11:30 - 11:45 | SSS04-04 | Fast Location Parameters Determination of Seismic Events from Few Seconds of P Wave Recorded at a Single Seismological Station Using Support Vector Machine Regression | Luis Hernan Ochoa Gutierrez | 予稿 |
11:45 - 12:00 | SSS04-05 | しきい値なし波形相関による前震検出 | 平野 史朗 | 予稿 |
12:00 - 12:15 | SSS04-06 | Automated seismic event detection and localization: An application to long-period seismicity at Aso Volcano influenced by large earthquake | Andri Hendriyana | 予稿 |
講演番号 | タイトル | 発表者 | 予稿原稿 |
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ポスター発表 5月26日 PM2 | |||
SSS04-P01 | Constraint of focal mechanisms of induced seismicity by using misfit angles based on known in-situ stress | 椋平 祐輔 | 予稿 |
SSS04-P02 | Kinematic slip imaging of the Mw 3.3 earthquake in the St. Gallen 2013 geothermal reservoir, Switzerland, using an isochrone back projection approach | Claudio Satriano | 予稿 |
SSS04-P03 | Monitoring induced seismicity with a single seismic station by combining coda wave interferometry with distance geometry solvers | Francesco Grigoli | 予稿 |
SSS04-P04 | Automatic Earthquake Locating by Stacking Characteristic Functions in a Source Scanning Method | Hilary Chang | 予稿 |
SSS04-P05 | Earthquake nowcasting: further development and application to Japan | 楠城 一嘉 | 予稿 |