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南 拓人 様の 共著関連データベース

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+(A list of literatures under single or joint authorship with "南 拓人")

共著回数と共著者名 (a list of the joint author(s))

    91: 南 拓人

    37: 藤 浩明

    22: 宇津木 充

    12: 杉岡 裕子

    11: 下泉 政志, 大志万 直人, 笠谷 貴史

    10: 小川 康雄, 島 伸和, 市原 寛

    8: 石須 慶一

    7: 上嶋 誠, 松野 哲男, 歌田 久司

    6: 吉村 令慧, 塩崎 一郎, 山口 覚, 山崎 明, 村上 英記, 藤井 郁子, 鍵山 恒臣

    5: Caldwell Grant, 國友 孝洋, 小畑 拓実, 新貝 雅文, 松島 政貴, 柴原 澪, 浜野 洋三, 清水 久芳, 荒木 将允

    4: 中家 徳真, 中島 涼輔, 中野 慎也, 井上 寛之, 北岡 紀広, 多田 訓子, 大塚 宏徳, 川嶋 一生, 石橋 桜, 芹田 創平, 谷口 陽菜実, 高橋 太

    3: Kirkby Alison, 城森 明, 巽 好幸, 廣瀬 時, 曾 國軒, 美田 千璃, 茂木 透, 萬年 一剛

    2: Gresse Marceau, 林 智恒, 浅利 晴紀, 神田 径, 羽入 朋子, 臼井 嘉哉, 藤本 光一郎, 道家 涼介, 馬場 俊孝

    1: Alison Kirkby, Bertrand Ted, Caldwell T.G., Heise Wiebke, Marceau Gresse, T. Grant Caldwell, T.G. Caldwell, Tseng Kuo Hsuan, Vincent Lesur, Zhiheng Lin, 三浦 勉, 中尾 節郎, 中道 治久, 丸谷 良博, 久田 大樹, 伊藤 亜妃, 伊藤 洋輔, 佐藤 雅彦, 何 東政, 原田 裕己, 吉川 慎, 塩原 肇, 増子 徳道, 大和田 毅, 姫野 康一郎, 安松 潤二, 寺本 万里子, 小河 勉, 山本 優二, 山本 揚二朗, 山谷 祐介, 岩瀬 由紀, 岳田 和也, 平野 裕紀, 廣瀬 仁, 新村 華奈子, 望戸 裕司, 杉山 大輔, 柴田 悠, 栫 裕亮, 森山 多加志, 横井 陽色, 武林 哲志, 浅井 ゆう子, 清水 淳平, 源 泰拓, 熊澤 峰夫, 玉井 信太朗, 田中 聡, 矢部 征, 穂積 裕太, 穴井 千里, 羽生 毅, 舘畑 秀衡, 藤井 直之, 西山 陽子, 西村 和浩, 豊留 修一, 近藤 優子, 野々山 達也, 馬場 聖至, 高木 悠, 高橋 幸裕, 鳥越 孝一郎, 鴨川 仁


発行年とタイトル (Title and year of the issue(s))

    2009: Mantle structure beneath the back arc region of southwest Japan: An ocean locked view by newly acquired seafloor EM dataset(E112 P004) [Net] [Bib]

    2009: 西南日本背弧における導体地球の長周期応答 [Net] [Bib]
    Long period electromagnetic responses of the conducting Earth in the back arc region of Southwest Japan [Net] [Bib]

    2009: 西南日本背弧における導体地球の長周期応答 [Net] [Bib]
    Long period electromagnetic responses of the conducting Earth in the back arc region of Southwest Japan [Net] [Bib]

    2009: 西南日本背弧域における地下比抵抗構造の多次元性(A003 P006) [Net] [Bib]
    Dimensionality of the subsurface electrical structure beneath the southwest Japan(A003 P006) [Net] [Bib]

    2010: 大山を含む陸域・海域測線下の電気伝度構造について(SEM031 01) [Net] [Bib]
    On the electrical conductivity structure beneath the land sea EM array including Mt. Daisen(SEM031 01) [Net] [Bib]

    2010: 海陸境界における二次元FEMモデリングにおける三角形要素と四角形要素の比較(A003 15) [Net] [Bib]
    On the comparison between rectangular and triangular elements in 2 D FEM modeling along land sea arrays (A003 15) [Net] [Bib]

    2010: 西南日本背弧における海域・陸域での地磁気電位差観測の概要 [Net] [Bib]
    Electromagnetic Observations in Sea and Land to Image Resistivity Structure beneath the Back Arc Region of Southwest Japan [Net] [Bib]

    2010: 非一様薄層導体近似を用いた西南日本背弧域における海底地形効果の推定 [Net] [Bib]
    Estimation of the bathymetric effect in the back arc region of SW Japan using non uniform thin sheet approximation [Net] [Bib]

    2011: 北西太平洋海盆で観測された東北地方太平洋沖地震津波による海洋ダイナモ効果(A32 01) [Net] [Bib]
    Oceanic dynamo effects of the tsunamis by the 2011 off the Pacific coast of Tohoku Earthquake observed in the Northwest Pacific Basin (A32 01) [Net] [Bib]

    2011: 海域・陸域データを用いた西南日本背弧域の地下比抵抗構造(SEM037 01) [Net] [Bib]
    On the electrical conductivity structure beneath the back arc region of SW Japan based on both land and seafloor data(SEM037 01) [Net] [Bib]

    2011: 海陸共同観測データを用いた西南日本背弧の電気伝導度構造 [Net] [Bib]

    2011: 西南日本背弧域における三角形要素を用いた二次元有限要素法順モデリング(A003 07) [Net] [Bib]
    On 2 D FEM forward modelling using triangular elements beneath the back arc region of SW Japan (A003 07) [Net] [Bib]

    2012: 有限要素法を用いた二次元津波ダイナモシミュレーション(A003 14) [Net] [Bib]
    2 D tsunami dynamo simulations using the finite element method(A003 14) [Net] [Bib]

    2013: ベクトル津波計によるはじめての海底観測(SEM37 10) [Net] [Bib]
    First seafloor observation of Vector Tsunameter (SEM37 10) [Net] [Bib]

    2013: ベクトル津波計による海底電磁気シグナルの観測(R003 05) [Net] [Bib]
    Observation of seafloor ElectroMagnetic(EM) signals by using Vector TsunaMeter(R003 05) [Net] [Bib]

    2013: 二次元有限要素法による津波ダイナモ効果のシミュレーション(SEM37 09) [Net] [Bib]
    2 D tsunami dynamo simulations in the northwest Pacific using the finite element method (SEM37 09) [Net] [Bib]

    2013: 時間領域における二次元津波ダイナモシミュレーション(32) [Net] [Bib]
    2 D FEM simulations of tsunami dynamo effects in time domain (32) [Net] [Bib]

    2013: 津波到来に先んじて観測される海底水平磁場変動について(R003 06) [Net] [Bib]
    Initial rise in the horizontal magnetic component induced by the tsunami passage(R003 06) [Net] [Bib]

    2014: ベクトル津波計による微小津波の検出(R003 04) [Net] [Bib]
    Detection of micro tsunamis by using Vector Tsunameter (R003 04) [Net] [Bib]

    2014: 水深に基づく津波ダイナモ現象の分類(SEM36 02) [Net] [Bib]
    Classification of tsunami dynamo phenomena in terms of ocean depths (SEM36 02) [Net] [Bib]

    2015: 三次元津波電磁場シミュレーションによる海底津波電磁場データの再現(HDS27 13) [Net] [Bib]
    Three dimensional simulation of the tsunami generated magnetic fields: reproduction of seafloor tsunami magnetic signals (HDS27 13) [Net] [Bib]

    2015: 広域津波伝搬に伴う電磁場変動の時間領域三次元シミュレーション(R003 04) [Net] [Bib]
    Time domain three dimensional simulations of the electromagnetic fields generated by wide area propagation of tsunamis (R003 04) [Net] [Bib]

    2015: 赤道域海洋島における津波起源磁場(R003 03) [Net] [Bib]
    Tsunami generated magnetic fields on oceanic islands in equatorial regions (R003 03) [Net] [Bib]

    2016: 火山体電磁モニタリングのための非構造格子を用いた節点ベース三次元有限要素法(SEM35 P02) [Net] [Bib]
    Three dimensional node based FEM method using unstructured grid for electromagnetic volcano monitoring systems (SEM35 P02) [Net] [Bib]

    2016: 火山地熱システムの研究ターゲットと手法の提案:粘土・シリカキャップロックとそのモニタリング [Net] [Bib]
    A new research target and methods on geothermal system: Monitoring clay cap and silica cap [Net] [Bib]

    2017: 2014年11月阿蘇山マグマ噴火前後のACTIVE観測結果を説明する三次元比抵抗構造推定の試み(SEM19 P03) [Net] [Bib]
    Attempt at three dimensional modelling of temporal change in resistivity structure beneath Aso volcano through the magmatic eruption in November, 2014 (SEM19 P03) [Net] [Bib]

    2017: ACTIVEの結果を用いた三次元インバージョン 2014年11月阿蘇山マグマ噴火に伴う比抵抗構造変化の推定 (R003 04) [Net] [Bib]
    3 D Inversion using ACTIVE data for temporal change in resistivity structure beneath Aso volcano through magmatic eruptions (R003 04) [Net] [Bib]

    2017: ACTIVE観測を用いた2014年11月の阿蘇中岳マグマ噴火に伴う比抵抗構造変化の推定 [Net] [Bib] [Doi]
    Temporal Change in resistivity structure beneath Aso volcano through the magmatic eruption in November, 2014 [Net] [Bib] [Doi]

    2017: 有限要素法を用いた津波電磁場変動の三次元時間領域シミュレーションと2011年東北地方太平洋沖地震津波への応用 [Net] [Bib]
    Three dimensional time domain simulations of tsunami generated electromagnetic variations by the finite element method and application to the case of the 2011 off the Pacific coast of Tohoku Earthquake tsunami [Net] [Bib]

    2017: 草津白根火山下の釣鐘型低比抵抗体に対する双極子電流を用いた電磁探査の感度 [Net] [Bib]
    Sensitivity of electromagnetic sounding using electric current dipoles against the bell shaped low resistivity structure beneath the Kusatsu Shirane volcano, Japan [Net] [Bib]

    2018: ACTIVEの三次元データ領域インバージョンにおけるMinimum Support Gradient法を用いた比抵抗異常の明瞭化(SEM16 10) [Net] [Bib]
    Image focusing of conductive anomaly in CSEM data space inversion using minimum support gradient regularization(SEM16 10) [Net] [Bib]

    2018: ACTIVEデータから推定される阿蘇山2014 2016年活動期の比抵抗構造時間変化(R003 06) [Net] [Bib]
    Temporal variation in the resistivity structure of Aso volcano during the active period from 2014 to 2016 (R003 06) [Net] [Bib]

    2018: ACTIVE観測から推定される2014 2016年活動期における阿蘇山浅部地下比抵抗構造の推移(SVC41 08) [Net] [Bib]
    Temporal changes in the resistivity structure beneath Aso volcano during the last eruption period from November 2014 to October 2016, inferred by ACTIVE observations (SVC41 08) [Net] [Bib]

    2018: ACTIVE観測から推定される2014 2016年阿蘇山噴火期の地下比抵抗構造の推移 [Net] [Bib] [Doi]
    Temporal variations in the resistivity structure during the eruptions of Aso volcano from 2014 to 2016 as inferred by ACTIVE observations [Net] [Bib] [Doi]

    2018: iTACFEM 3D アダプティブ四面体メッシュを用いたCSEM三次元インバージョンコードの開発 (R003 P13) [Net] [Bib]
    iTACFEM 3D: Three dimensional inversion with tetrahedral mesh adaption for CSEM problems associated with volcano sounding (R003 P13) [Net] [Bib]

    2019: ACTIVEから推定される2014 2015年阿蘇山マグマ噴火時における連続的な比抵抗構造時間変化モデル(R003 02) [Net] [Bib]
    A series of 3 D resistivity change models of Aso volcano from 2014 to 2015, as inferred by five ACTIVE data sets (R003 02) [Net] [Bib]

    2019: ACTIVE観測結果から見る2014 2016年阿蘇山活動期の地下熱水系の変化(SVC39 P05) [Net] [Bib]
    Evolution of the hydrothermal system of Aso volcano during the 2014 2016 eruption period, as inferred by the ACTIVE observations (SVC39 P05) [Net] [Bib]

    2019: 地上磁場観測に見られる津波起因電離層電流の効果:2011年東北地方太平洋沖地震の場合について(PEM16 10) [Net] [Bib]
    Tsunami generated ionospheric currents inferred from geomagnetic observations at ground level: Case for the 2011 Tohoku Earthquake (PEM16 10) [Net] [Bib]

    2019: 津波に誘導される磁場変動は、津波到来前に陸上観測で捉えられるか?ー数値計算による知見からー(HDS13 P06) [Net] [Bib]
    Can we detect tsunami magnetic signals at on land observatories prior to tsunami arrivals? : From the perspective of numerical experiments (HDS13 P06) [Net] [Bib]

    2019: 火山電磁モニタリングシステムACTIVE これまでの成果と課題、今後の可能性について [Net] [Bib] [Doi]
    On achievements and future possibilities of an electromagnetic volcano monitoring system, ACTIVE [Net] [Bib] [Doi]

    2020: Analysis of evolution of the hydrothermal system of Aso volcano from 2014 to 2015 using multiphase flow simulation and 3 D resistivity variation model (SVC44 11) [Net] [Bib]

    2020: Contribution to IGRF 13 from Japan: A secular variation model using a numerical dynamo model and 4DEnVar data assimilation (SEM19 10) [Net] [Bib]

    2020: Forecasts of geomagnetic secular variation using core surface flow models (2) (SEM22 P02) [Net] [Bib]

    2020: Inferring geomagnetic secular variation using MHD/kinematic dynamo modeling with data assimilation (SEM19 P09) [Net] [Bib]

    2021: ACTIVE AMTデータのジョイントインバージョンによる阿蘇山地下熱水系の理解に向けて(SEM14 04) [Net] [Bib]
    Toward joint inversion of AMT and ACTIVE data sets for better understanding of the hydrothermal system of Aso volcano (SEM14 04) [Net] [Bib]

    2021: How about using the magnetic field for the tsunami warning? Comparison of the tsunami magnetic field with the sea level change (SEM12 03) [Net] [Bib]

    2021: Summary: A candidate secular variation model for IGRF 13 based on MHD dynamo simulation and 4DEnVar data assimilation [Net] [Bib]

    2021: ラウ海盆における潮汐起因磁場変動の一次元順計算:計算結果と海底磁場データの比較および比抵抗構造に対する感度について(SEM14 P02) [Net] [Bib]
    1 D forward calculation of tidally induced magnetic variation in the Lau Basin: Comparison of calculation and seafloor magnetic data and sensitivity analysis (SEM14 P02) [Net] [Bib]

    2021: 地形効果を含む海底MTデータを扱う3次元インバージョンコードの開発 ~フォワード問題に関して~(SEM14 11) [Net] [Bib]
    Development of a 3D inversion code to consider ocean bottom magnetotelluric data including topographic distortion ~forward modeling part~ (SEM14 11) [Net] [Bib]

    2021: 比抵抗構造から示唆される阿蘇山の熱水系モデルについて [Net] [Bib] [Doi]
    A hydrothermal model of Aso volcano inferred by resistivity structure [Net] [Bib] [Doi]

    2021: 阿蘇2014年マグマ噴火前後における地下比抵抗分布の推移 [Net] [Bib] [Doi]
    Distribution of subsurface resistivity before and after the Aso 2014 magmatic eruption [Net] [Bib] [Doi]

    2021: 阿蘇2014年マグマ噴火前後における地下比抵抗分布の推移(R003 10) [Net] [Bib]
    Distribution of subsurface resistivity before and after the Aso 2014 magmatic eruption (R003 10) [Net] [Bib]

    2021: 電磁アクロスデータの時系列解析 [Net] [Bib]
    Time Series Analyses of EM ACROSS Data [Net] [Bib]

    2021: 電磁アクロスデータの時系列解析(SEM14 06) [Net] [Bib]
    Time Series Analyses of EM ACROSS Data (SEM14 06) [Net] [Bib]

    2021: 鬼界海底カルデラ付近で得られた海底圧力観測の初期的な結果(SCG45 13) [Net] [Bib]
    Preliminary results of ocean bottom pressure observation around Kikai submarine caldera, SW Japan (SCG45 13) [Net] [Bib]

    2022: Development of joint inversion code to obtain resistivity structure of Nakadake, Aso volcano, consistent between AMT and ACTIVE data sets (SEM16 06) [Net] [Bib]

    2022: Effects of the difference in sensitivity between ACTIVE and MT on the joint inversion in volcanic regions (R003 02) [Net] [Bib]

    2022: Tsunami related magnetic signals observed at Chichijima Island, Japan, after the eruption of Hunga volcano, Tonga, on January 15, 2022 (HDS10 07) [Net] [Bib]

    2022: ラウ海盆における潮汐起因磁場の 3D 順計算(R003 04) [Net] [Bib]
    3D forward calculation of tidally Induced magnetic field in the Lau Basin (R003 04) [Net] [Bib]

    2022: 島で観測される津波誘導電磁場の地下比抵抗依存性について(SEM16 08) [Net] [Bib]
    The dependence of the tsunami genereted electromagnetic fields due to tsunamis on the subsurface resistivity (SEM16 08) [Net] [Bib]

    2022: 海底地形効果を考慮した 3 次元比抵抗構造解析手法の開発(R003 03) [Net] [Bib]
    Development of 3D resistivity structure analysis method considering the effects of seafloor topography (R003 03) [Net] [Bib]

    2022: 海底水圧計と海底電位磁力計データの同時インバージョンから推定した2009年サモア地震のすべり量分布(S17 04) [Net] [Bib]
    The slip distribution of the 2009 Samoa earthquake doublet estimated by a joint inversion ocean bottom pressure and electromagnetic tsunami records (S17 04) [Net] [Bib]

    2022: 潮汐起因磁場の三次元順計算コードの開発(SEM16 07) [Net] [Bib]
    Development of 3D forward calculation code of tidally induced magnetic variation. (SEM16 07) [Net] [Bib]

    2022: 阿蘇2021年マグマ噴火前の地下比抵抗分布の推移(SVC31 P15) [Net] [Bib]
    Distribution of subsurface resistivity before the Aso 2021 magmatic eruption (SVC31 P15) [Net] [Bib]

    2022: 阿蘇2021年水蒸気噴火後の地下比抵抗分布の推定 [Net] [Bib] [Doi]
    Estimation of subsurface resistivity distribution after the Aso 2021 phreatomagmatic eruption [Net] [Bib] [Doi]

    2022: 電磁アクロスデータの時系列解析(2)(SEM16 10) [Net] [Bib]
    Time Series Analyses of EM ACROSS Data (2) (SEM16 10) [Net] [Bib]

    2022: 電磁場変動観測を用いた津波波源推定と津波予測に向けて [Net] [Bib]
    Toward application of electromagnetic observation to inference of tsunami sources and tsunami forecasts [Net] [Bib]

    2023: 3 D joint inversion of the AMT and ACTIVE datasets obtained in Aso volcano (SEM14 P09) [Net] [Bib]

    2023: Application of EM ACROSS to investigate underground structures of the Kusatsu Shirane Volcano, Japan (SEM14 10) [Net] [Bib]

    2023: Development of 3 D joint inversion code for MT and CSEM data sets for both land and ocean survey situations [Net] [Bib]

    2023: Forward modeling of the EM ACROSS at Inferno Crater Lake, New Zealand (SEM14 P14) [Net] [Bib]

    2023: Imaging 3D resistivity structure under the seafloor of Kikai caldera volcano (SVC31 15) [Net] [Bib]

    2023: Numerical simulation of tsunami and magnetic signals at Chichijima Island, Japan, after the eruption of Hunga volcano, Tonga, on January 15, 2022 (HDS06 06) [Net] [Bib]

    2023: Resistivity structure of the Lau basin as inferred from M2 tidal magnetic variation at the seafloor (SEM14 15) [Net] [Bib]

    2023: ニュージーランドInferno Crater LakeにおけるEM ACROSS連続観測 [Net] [Bib]
    Continuous EM ACROSS Observation at Inferno Crater Lake, New Zealand [Net] [Bib]

    2023: 機械学習による津波誘導磁場検出の試み(SCG55 P05) [Net] [Bib]
    Attempt to detect tsunami generated magnetic variation using machine learning (SCG55 P05) [Net] [Bib]

    2023: 機械学習を用いた津波誘導磁場検出手法の開発と実観測データによる検証 [Net] [Bib]
    Development of machine learning model for detection of tsunami magnetic signals in seafloor magnetic data [Net] [Bib]

    2023: 海底圧力データと海底磁場データのジョイントインバージョンによる2007年千島列島地震の津波波源推定 [Net] [Bib]
    Tsunami source of the 2007 Kuril earthquake inferred by joint inversion of seafloor pressure and seafloor magnetic data [Net] [Bib]

    2023: 海底圧力データと海底磁場データのジョイントインバージョンによる2007年千島列島地震の津波波源推定(HDS06 P12) [Net] [Bib]
    Tsunami source of the 2007 Kuril earthquake inferred by joint inversion of seafloor pressure and seafloor magnetic data (HDS06 P12) [Net] [Bib]

    2023: 鬼界カルデラ火山海底下の三次元比抵抗構造解析 [Net] [Bib]
    Imaging a 3 D resistivity structure under the Kikai submarine caldera volcano [Net] [Bib]

    2024: 2011年東北津波に起因する電場変動を用いた神津島地下比抵抗の検討(SEM12 P05) [Net] [Bib]
    Examination of subsurface resistivity in Kozushima Island using electric field variations generated by the 2011 Tohoku tsunami (SEM12 P05) [Net] [Bib]

    2024: 3 D resistivity structure under the Kikai submarine caldera volcano (SVC26 16) [Net] [Bib]

    2024: Benchmark study toward DGRF2020 for IGRF14 Reproducing DGRF2015 using magnetic data from ground observatories and Swarm satellites (SEM13 10) [Net] [Bib]

    2024: CSAMTデータを用いた大涌谷噴気帯西部の三次元比抵抗構造推定 [Net] [Bib] [Doi]
    Inferring the Three Dimensional Resistivity Structure West of the Hakone Owakudani Fumarolic Zone Using CSAMT Dataset [Net] [Bib] [Doi]

    2024: Evaluation of the effect of lake level and temperature on CSEM transfer functions at Inferno Crater Lake, New Zealand (SEM12 P11) [Net] [Bib]

    2024: UAV搭載電磁探査による熱水噴火発生場の比抵抗構造監視に向けた挑戦(SEM12 07) [Net] [Bib]
    Challenges of UAV mounted Electromagnetic Survey to monitor resistivity structure of potential source of hydrothermal eruptions (SEM12 07) [Net] [Bib]

    2024: インフェルノ火口湖におけるEM ACROSS法時系列解析 [Net] [Bib]
    Time series analysis of EM ACROSS observations at Inferno Crater Lake, New Zealand [Net] [Bib]

    2024: 機械学習による津波誘導磁場の検出の試み(SCG50 P05) [Net] [Bib]
    Attempt to detect tsunami magnetic field using machine learning (SCG50 P05) [Net] [Bib]

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