6. 成果発表

6.1. 論文等

６．成果発表
６．１．論文等
気象研究所の職員が、令和２年度に発表した原著論文や報告書、著書、翻訳、解説などの著作物について、単独・共著の区別なく掲載した。ただし、口頭発表に伴う著作物のうち学会予稿集など簡易なものについては除いている。
各著作物の情報は、整理番号, 著者, 発表年, タイトル. 掲載誌（書名）, 掲載巻, 掲載頁, doi（オンライン論文誌）または ISBN（著書（分担執筆含む））の順で掲載した。整理番号の後ろに「*」を付した著作物
は、原著論文査読付きであることを示している。
足立アホロ

1*

Takahisa KOBAYASHI, Mitsuharu NOMURA, Ahoro ADACHI, Soichiro
SUGIMOTO, Nobuhiro TAKAHASHI, Hiromaru HIRAKUCHI, 2021:
Retrieval of Attenuation Profiles from the GPM Dual-frequency Radar
Observations. Journal of the Meteorological Society of Japan, 99, 603-620.

足立光司

1*

Takegawa, N., T. Seto, N. Moteki, M. Koike, N. Oshima, K. Adachi, K. Kita, A.
Takami, and Y. Kondo, 2020: Enhanced new particle formation above themarine boundary layer over the Yellow Sea: Potential impacts on cloud
condensation nuclei. Journal of Geophysical Research Atmosphere,
doi:10.1029/2019JD031448.

2*

Cuizhi Sun, Kouji Adachi, Kentaro Misawa, Hing Cho Cheung, Charles C.‐K.
Chou, Nobuyuki Takegawa, 2020: Mixing State of Black Carbon Particles in
Asian Outflow Observed at a Remote Site in Taiwan in the Spring of 2017.
Journal of Geophysical Research Atmosphere, 125, doi:10.1029/2020JD032526.

3*

M. Hartmann, K. Adachi, O. Eppers, C. Haas, A. Herber, R. Holzinger, A.
Hunerbein, E. Jakel, C. Jentzsch, M. van Pinxteren, H. Wex, S. Willmes, and F.
Stratmann, 2020: Wintertime airborne measurements of ice nucleating
particles in the high Arctic. Geophysical Research Letters, 47,
doi:10.1029/2020GL087770.

4*Kita, K., Y. Igarashi, T. Kinase, N. Hayashi, M. Ishizuka, K. Adachi, M. Koitabashi,
T. T. Sekiyama and Y. Onda, 2020: Rain-induced bioecological resuspension ofradiocaesium in a polluted forest in Japan. Scientific Reports, 10, 15330,
doi:10.1038/s41598-020-72029-z.

5*Adachi, K., Oshima, N., Gong, Z., de Sá, S., Bateman, A. P., Martin, S. T., de Brito, J.
F., Artaxo, P., Cirino, G. G., Sedlacek III, A. J., and Buseck, P. R., 2020: Mixing
states of Amazon basin aerosol particles transported over long distances usingtransmission electron microscopy. Atmospheric Chemistry and Physics, 20,
11923-11939, doi.org/10.5194/acp-20-11923-2020.

6*

Yoshizue M, Taketani F, Adachi K, Iwamoto Y, Tohjima Y, Mori T, Miura K, 2020:
Detection of Aerosol Particles from Siberian Biomass Burning over the Western
North Pacific. Atmosphere, 11, 1175, doi:10.3390/atmos11111175.

7*

Kleinman L. I., Sedlacek III A. J., Adachi K., Buseck P. R., Collier S., Dubey M. K.,
Hodshire A. L., Lewis E., Onasch T. B., Pierce J. R., Shilling J., Springston S.
R., Wang J., Zhang Q., Zhou S., and Yokelson R. J, 2020: Rapid evolution ofaerosol particles and their optical properties downwind of wildfires in thewestern US. Atmospheric Chemistry and Physics, 20, 13319,
doi:10.5194/acp-20-13319-2020.

- 218 -

6. 成果発表

6.1. 論文等

8*

Kinase, T., K. Adachi, T. T. Sekiyama, M. Kajino, Y. Zaizen, and Y. Igarashi, 2020:
Temporal variations of 90Sr and 137Cs in atmospheric depositions after the
Fukushima Daiichi Nuclear Power Plant accident with long-term observations.
Scientific Reports, 10, 21627, doi:10.1038/s41598-020-78312-3.

9*

川端康弘, 梶野瑞王, 財前祐二, 足立光司, 田中泰宙, 清野直子, 2021: 東京都心における視程の変化. 天気（論文・短報）, 68, 5-12.

10* Kajino, M., K. Adachi, Y. Igarashi, Y. Satou, M. Sawada, T. T. Sekiyama, Y. Zaizen,
A. Saya, H. Tsuruta, and Y. Moriguchi, 2021: Deposition and dispersion ofradio-cesium released due to the Fukushima nuclear accident: 2. Sensitivity toaerosol microphysical properties of Cs-bearing microparticles (CsMP). Journalof Geophysical Research Atmosphere, 126, e2020jd033460,
doi:10.1029/2020JD033460.
11* 青木輝夫, 的場澄人, 庭野匡思, 朽木勝幸, 谷川朋範, 竹内望, 山口悟, 本山秀明, 藤田耕史, 山崎哲秀, 飯塚芳徳, 堀雅裕, 島田利元, 植竹淳, 永塚尚子, 大沼友貴彦, 橋
本明弘, 石元裕史, 田中泰宙, 大島長, 梶野瑞王, 足立光司, 黒﨑豊, 杉山慎, 津滝俊, 東久美子, 八久保晶弘, 川上薫, 木名瀨健, 2021: SIGMA 及び関連プロジェク
トによるグリーンランド氷床上の大気・雪氷・雪氷微生物研究− ArCS II プロジェ
クトへのつながり −. 雪氷, 83(2).
12* Adachi, K., Oshima, N., Ohata, S., Yoshida, A., Moteki, N., and Koike, M., 2021:
Compositions and mixing states of aerosol particles by aircraft observations in
the Arctic springtime, 2018. Atmospheric Chemistry and Physics, 21,3607-3626, doi:10.5194/acp-21-3607-2021.
1

足立透, 坪木 和久, 牛尾 知雄, 高橋暢宏, 川口航平, 纐纈丈晴, 岩波越, 楠研一, 松田知也, 新野宏, 中川勝広, 2020: 気象災害委員会・第 52 回メソ気象研究会合同研究会の報告. 天気, 67(6), 31-35.

2*Adachi, T., and W. Mashiko, 2020: High Temporal‐Spatial Resolution Observationof Tornadogenesis in a Shallow Supercell Associated With Typhoon Hagibis(2019) Using Phased Array Weather Radar. Geophysical Research Letters.

3*

Bandholnopparat, K., M. Sato, T. Adachi, T. Ushio, and Y. Takahashi, 2020:
Estimation of the IC to CG Ratio Using JEM-GLIMS and Ground-based
Lightning Network Data. Journal of Geophysical Research Atmosphere, 125.

4足立透, 2021: 最新レーダー技術を用いた台風に伴う竜巻の新しい研究. 日本風工学会
誌, Vol.46, No.1(No.166), 19-28.

5足立透, 益子渉, 2021: 令和元年台風第 19 号に伴って発生した市原竜巻の３次元レーダ
ー解析. 台風研究会「台風災害の実態解明と台風防災・減災に資する方策」,
2020K-10, 15-18.

足立恭将

1

YONEHARA Hitoshi, MATSUKAWA Chihiro, NABETANI Takashi, KANEHAMA
Takafumi, TOKUHIRO Takayuki, YAMADA Kazutaka,NAGASAWA Ryoji,
ADACHI Yukimasa,andSEKIGUCHI Ryouhei, 2020: Upgrade of JMA’s
Operational Global Model. CAS/JSC WGNE WGNE Research Activities inEarth System Modelling, 50, 6-11-12.

荒木健太郎

1

荒木健太郎, 2020: 局地的大雨と集中豪雨の予測. スクエア最新図説地学（八訂版）,
196-197.

2

荒木健太郎，柳瀬亘，北畠尚子，黒良龍太, 2020: 令和元年台風第 19 号による大雨の発生環境場. 令和元年度科学研究費助成事業・特別研究促進費「令和元年台風 19 号
及び台風 21 号による広域災害に関する総合研究」報告書, 41-42.

足立透- 219 -

6. 成果発表

6.1. 論文等

3

荒木健太郎，北畠尚子, 2020: 2019 年 10 月 25 日関東大雨をもたらした降水システムとその発生環境場. 令和元年度科学研究費助成事業・特別研究促進費「令和元年台風
19 号及び台風 21 号による広域災害に関する総合研究」報告書, 42-45.

4

荒木健太郎，柳瀬亘，北畠尚子，黒良龍太, 2020: 大雨に対する地形の影響の評価. 令和

5Araki, K., 2020: Numerical simulation of potential impact of aerosols on heavy
rainfall event associated with typhoon Hagibis (2019). CAS/JSC WGNE
Research Activities in Earth System Modelling, 51, 403-404.

6

Araki, K., 2020: Numerical simulation of heavy rainfall event associated withtyphoon Hagibis (2019) with different horizontal resolutions. CAS/JSC WGNE
Research Activities in Earth System Modelling, 51, 303-304.

7

荒木健太郎, 2020: 魔法のような空の風景. 魔法のような空の風景, インプレス, 28pp,
ISBN: 978-4295009313.

8

佐藤陽祐, 當房豊, 山下克也, 荒木健太郎, 岩崎杉紀, 三隅良平, 大竹秀明, 茂木信宏,
齋藤泉, 川合秀明, 中島孝, 中野諭, 森樹大, 橋本明弘, 郭威鎮, 勝山祐太, 瀬戸里枝, 古藤慎之, 山田怜史, 折笠成宏, 田尻拓也, 遠藤幸生, 近藤誠, 大畑祥, 松嶋俊樹, 2020: 2019 年度「エアロゾル・雲・降水の相互作用に関する研究会」報告. 天気, 67, 665-670.

9*

Hirockawa Y., T. Kato, K. Araki, and W Mashiko, 2020: Characteristics of an
Extreme Rainfall Event in Kyushu District, Southwestern Japan in Early July
2020. SOLA, 16, 265-270.

10

荒木健太郎, 2020: 本だな「激甚気象はなぜ起こる」坪木和久 著. 天気, 67, 719.

元年度科学研究費助成事業・特別研究促進費「令和元年台風 19 号及び台風 21 号
による広域災害に関する総合研究」報告書, 49-50.

11* Araki, K., T. Kato, Y. Hirockawa, and W. Mashiko, 2021: Characteristics ofAtmospheric Environments of Quasi-Stationary Convective Bands in Kyushu,
Japan during the July 2020 Heavy Rainfall Event. SOLA, 17, 8-15.
安藤忍

1

栁澤宏彰，飯野英樹，安藤忍，高木朗充，及川輝樹, 2020: 西之島の 2020 年 6~8 月のバ
イオレント・ストロンボリ式噴火. 火山, 65, 119-124.

幾田泰酵

1*

Ikuta, Y., Okamoto, K. and T. Kubota, 2021: One‐dimensional maximum‐
likelihood estimation for spaceborne precipitation radar data assimilation.
Quarterly Journal of the Royal Meteorological Society, 147, 858-875,
doi:10.1002/qj.3950.

石井憲介

1

新堀敏基, 石井憲介, 2021: 気象庁移流拡散モデル設計書. 気象研究所技術報告, 84,
doi:10.11483/mritechrepo.84.

石井雅男

1

石井雅男, 2020: 海洋酸性化の現状と影響 ─ 二酸化炭素排出によるもうひとつの地球環境問題. EIC ピックアップ, 278.

2*

Masao Ishii, Keith B. Rodgers, Hisayuki Y. Inoue, Katsuya Toyama, Daisuke
Sasano, Naohiro Kosugi, Hisashi Ono, Kazutaka Enyo, Toshiya Nakano,Daniele Iudicone, Bruno Blanke, Olivier Aumont, and Richard A. Feely, 2020:
Ocean Acidification From Below in the Tropical Pacific. Global Biogeochemical
Cycles, 34, e2019GB006368.

3*

Rodgers, K. B., S. Schlunegger, R. D. Slater, M. Ishii, T. L. Frölicher, K. Toyama, Y.
Plancherel, O. Aumont, and A. J. Fassbender, 2020: Reemergence of
Anthropogenic Carbon Into the Ocean's Mixed Layer Strongly Amplifies
Transient Climate Sensitivity. Geophysical Research Letters, 47,
e2020GL089275, doi:10.1029/2020GL089275.
- 220 -

6. 成果発表

6.1. 論文等

4*

Naohiro Kosugi, Nariaki Hirose, Takahiro Toyoda and Masao Ishii, 2020: Rapid
freshening of Japan Sea Intermediate Water in the 2010s. Journal of
Oceanography, 76, doi:10.1007/s10872-020-00570-6.

5*Rodgers, K. B., M. Ishii, T. L. Frölicher, S. Schlunegger, O. Aumont, K. Toyama, andR. D. Slater, 2020: Coupling of Surface Ocean Heat and Carbon Perturbations
over the Subtropical Cells under Twenty-First Century Climate Change.
Journal of Climate, 33, 10321-10338, doi:10.1175/JCLI-D-19-1022.1.

6

A. Olsen, N. Lange, R.M. Key, T. Tanhua, H.C. Bittig, A. Kozyr., M. Álvarez, K.
Azetsu-Scott., S. Becker, P.J. Brown, B.R. Carter, L. Cotrim da Cunha, R.A.
Feely, S. van Heuven, M. Hoppema, M. Ishii, E. Jeansson, S. Jutterström, etal., 2020: An updated version of the global interior ocean biogeochemical data
product, GLODAPv2.2020 . Earth System Science Data, 12, 3658.

7*

Yosuke Iida, Yusuke Takatani, Atsushi Kojima, Masao Ishii, 2021: Global trends ofocean CO2 sink and ocean acidification: an observation-based reconstruction of
surface ocean inorganic carbon variables. Journal of Oceanography, 77,
323-358.

8

石井雅男、見延庄士郎, 2021: 「国連海洋科学の 10 年」― One Ocean に向けて 気候
変化と気候変動の観点から. 学術の動向, 26, 28-34.

9石井雅男, 2021: 海の二酸化炭素研究の「価値連鎖」〜「国連海洋科学の 10 年」に向けて〜 . Ocean Newsletter, 482, 2-3.

10* Sakae Toyoda, Takahito Kakimoto, Kushi Kudo, Naohiro Yoshida, Daisuke Sasano,
Naohiro Kosugi, Masao Ishii, Sohiko Kameyama, Mahomi Inagawa, Hisayuki
Yoshikawa‐Inoue, Shigeto Nishino, Akihiko Murata, Shigeyuki Ishidoya, andShinji Morimoto, 2021: Distribution and Production Mechanisms of N2O in theWestern Arctic Ocean. Global Biogeochemical Cycles, 35, e2020GB006881,
doi:10.1029/2020GB006881.
石井正好

石川一郎

1*

Nosaka, M., M. Ishii, H. Shiogama, R. Mizuta, A. Murata, H. Kawase, and H.
Sasaki, 2020: Scalability of future climate changes across Japan examined withlarge-ensemble simulations at +1.5 K, +2 K, and +4 K global warming levels.
Progress in Earth and Planetary Science, doi:10.1186/s40645-020-00341-3.

2*

石井 正好、森 信人, 2020: d4PDF: large-ensemble and high-resolution climate
simulations for global warming risk assessment.. Progress in Earth andPlanetary Science, 7, doi:10.1186/s40645-020-00367-7..

3*

Couldrey, MP, J. M. Gregory, S. M. Griffies, H. Haak, A. Hu, M. Ishii, J. Jungclaus,
O. A. Saenko, A. Shao, T. Suzuki, A. Todd, L. Zanna, 2020: What causes the
spread of model projections of ocean dynamic level change in response to
greenhouse gas forcing? . Climate Dynamics, doi:10.1007/s00382-020-05471-4.

4*

庭野匡思, 青木輝夫, 橋本明弘, 大島 長, 梶野瑞王, 大沼友貴彦, 藤田耕史, 山口 悟,
島田利元, 竹内 望, 津滝 俊, 本山秀明, 石井正好, 杉山 慎, 平沢尚彦, 阿部彩子,
2021: 氷床表面質量収支の実態とそのモデリングの試み：2020 年夏最新版. 雪氷,
83, 27-50.

5*Aizawa, T., M. Ishii, N. Oshima, S. Yukimoto, and H. Hasumi, 2021: Arctic warming
and associated sea ice reduction in the early 20th century induced by naturalforcings in MRI-ESM2.0 climate simulations and multi-model analyses.
Geophysical Research Letters, 48.

1*

Takaya, Y., I. Ishikawa, C. Kobayashi, H. Endo, and T. Ose, 2020: Enhanced- 221 -

6. 成果発表

6.1. 論文等

Meiyu–Baiu Rainfall in Early Summer 2020: Aftermath of the 2019 Super IOD
Event. Geophysical Research Letters, doi:10.1029/2020GL090671.
2*

Kobayashi, C., Y. Fujii, I. Ishikawa, 2021: Intraseasonal SST-Precipitation
Relationship in a coupled reanalysis experiment using the MRI coupledatmosphere-ocean data assimilation system. Climate Dynamics,
doi:10.1007/s00382-020-05592-w.

3*

Fujii, Y., T. Ishibashi, T. Yasuda, Y. Takaya, C. Kobayashi, and I. Ishikawa, 2021:
Improvements in tropical precipitation and sea surface air temperature fields
in a coupled atmosphere–ocean data assimilation system. Quarterly Journal of
the Royal Meteorological Society, 147, 1317-1343, doi:10.1002/qj.3973.

4*

Takaya, Y., N. Saito, I. Ishikawa, S. Maeda, 2021: Two Tropical Routes for the
Remote Influence of the Northern Tropical Atlantic on the Indo－western
Pacific Summer Climate. Journal of Climate, 34, 1619-1634,
doi:10.1175/JCLI-D-20-0503.1.

石島健太郎

1*

Shigeyuki Ishidoya, Satoshi Sugawara, Yasunori Tohjima, Daisuke Goto, Kentaro
Ishijima, Yosuke Niwa, Nobuyuki Aoki, and Shohei Murayama, 2021: Secularchange in atmospheric Ar∕N2 and its implications for ocean heat uptake andBrewer–Dobson circulation. Atmospheric Chemistry and Physics, 21, 1357.

石田春磨

1

岡本幸三、大和田浩美、藤田匡、別所康太朗、高橋昌也、太田芳文、計盛正博、大塚道子、瀬古弘、石田春磨 、上清直隆、石元裕史 、林昌宏 、安藤昭芳、横田寛伸, 2021:
ひまわり 8・9 号後継衛星検討のためのハイパースペクトル赤外サウンダの数値
予報インパクト調査. 測候時報, 87, 99-150.

石橋俊之

1*

Ishibashi, T., 2020: Improvement of accuracy of global numerical weather prediction
using refined error covariance matrices. Monthly Weather Review, 148,2623-2643.

2*

Fujii, Y., T. Ishibashi, T. Yasuda, Y. Takaya, C. Kobayashi, and I. Ishikawa, 2021:
Improvements in tropical precipitation and sea surface air temperature fields
in a coupled atmosphere–ocean data assimilation system. Quarterly Journal of
the Royal Meteorological Society, 147, 1317-1343, doi:10.1002/qj.3973.

1*

Tanikawa, T., K. Kuchiki, T. Aoki, H. Ishimoto, A. Hachikubo, M. Niwano, M.
Hosaka, S. Matoba, Y. Kodama, Y. Iwata, and K. Stamnes, 2020: Effects ofsnow grain shape and mixing state of snow impurity on retrieval of snow
physical parameters from ground-based optical instrument. Journal ofGeophysical Research Atmosphere, 125, e2019JD031858,
doi:10.1029/2019JD031858.

2*

Li, W., F. Zhang, YI-N. Shi, H. Iwabuchi, M. Zhu, J. Li., W. Han, H. Letu, and H.
Ishimoto, 2020: Efficient radiative transfer model for thermal infrared
brightness temperature simulation in cloudy atmospheres. Optics Express, 28,25730, doi:10.1364/OE.400130.

3*

Okamoto, K., H. Owada, T. Fujita, M. Kazumori, M. Otsuka, H. Seko, Y. Ota, N.
Uekiyo, H. Ishimoto, M. Hayashi, H. Ishida, A. Ando, M. Takahashi, K. Bessho,
H. Yokota, 2020: Assessment of the potential impact of a hyperspectral infraredsounder on the Himawari follow-on geostationary satellite. SOLA, 16, 162-168,
doi:10.2151/sola.2020-028.

4*

Okamoto, H., K. Sato, A. Borovoi, H. Ishimoto, K. Masuda, A. Konoshonkin, and N.
Kustova, 2020: Wavelength dependence of ice cloud backscatter properties for

石元裕史- 222 -

6. 成果発表

6.1. 論文等

space-borne polarization lidar applications. Optics Express, 28, 29178,
doi:10.1364/OE.400510.
5

岡本 創, 木村 俊義, 境澤 大亮 , 石井 昌憲, 西澤 智明, 石元 裕史，佐藤 可織，及川栄治, 2020: イメージング FTS とドップラーライダによる 全球風観測. レーザー
センシング学会誌, 1-2, 67-71.

6*青木輝夫, 的場澄人, 庭野匡思, 朽木勝幸, 谷川朋範, 竹内望, 山口悟, 本山秀明, 藤田耕史, 山崎哲秀, 飯塚芳徳, 堀雅裕, 島田利元, 植竹淳, 永塚尚子, 大沼友貴彦, 橋
本明弘, 石元裕史, 田中泰宙, 大島長, 梶野瑞王, 足立光司, 黒﨑豊, 杉山慎, 津滝俊, 東久美子, 八久保晶弘, 川上薫, 木名瀨健, 2021: SIGMA 及び関連プロジェク
トによるグリーンランド氷床上の大気・雪氷・雪氷微生物研究− ArCS II プロジェ
クトへのつながり −. 雪氷, 83(2).

7

岡本幸三、大和田浩美、藤田匡、別所康太朗、高橋昌也、太田芳文、計盛正博、大塚道子、瀬古弘、石田春磨 、上清直隆、石元裕史 、林昌宏 、安藤昭芳、横田寛伸, 2021:
ひまわり 8・9 号後継衛星検討のためのハイパースペクトル赤外サウンダの数値
予報インパクト調査. 測候時報, 87, 99-150.

1*

Shiogama, H., R. Ito, Y. Imada, T. Nakaegawa, N. Hirota, N. N. Ishizaki, K.
Takahashi, I. Takayabu, and S. Emori, 2020: Selecting future climate
projections of surface solar radiation in Japan. SOLA, 16, 75-79,
doi:10.2151/sola.2020-013.

2*

Miyasaka, T., H. Kawase, T. Nakaegawa, Y. Imada, and I. Takayabu, 2020: Future
projections of heavy precipitation in Kanto and associated weather patterns
using large ensemble high-resolution simulations. SOLA, 16, 125-131,
doi:10.2151/sola.2020-022.

3*

Imada, Y., H. Kawase, M. Watanabe, H. Shiogama, M. Arai, and I. Takayabu, 2020:
Advanced event attribution for heavy regional rainfall events.. npj Climate andAtmospheric Science, 3, 35.

4*

Kawase,H., M. Yamaguchi, Y. Imada,S. Hayashi, A. Murata, T. Nakaegawa, T.
Miyasaka, I. Takayabu, 2020: Enhancement of extremely heavy precipitationinduced by Typhoon Hagibis (2019) due to historical warming. SOLA, 17A,
7-13.

5*

Kataoka, T., H. Tatebe, H. Koyama, T. Mochizuki, K. Ogochi, H. Naoe, Y. Imada, H.
Shiogama, M. Kimoto, and M. Watanabe, 2020: Seasonal to Decadal
Predictions with MIROC6: Description and Basic Evaluation. Journal ofAdvances in Modeling Earth Systems, doi:10.1029/2019MS002035.

6*

Hasegawa, A., Y. Imada, H. Shiogama, M. Mori, H. Tatebe, M. Watanabe, 2020:
Impact of air-sea coupling on the probability of occurrence of heat waves inJapan. Progress in Earth and Planetary Science, 7, 78.

碓氷典久

1

碓氷典久, 広瀬成章, 2020: 高解像度海洋モデル・データ同化システムを用いた黒潮流路
変動研究. 月刊海洋, 52, 339-345.

梅原章仁

1*

Hayashi, S., A. Umehara, N. Nagumo, and T. Ushio, 2021: The relationship between
lightning flash rate and ice-related volume derived from dual-polarization
radar. Atmospheric Research, 248, 105166.

浦川昇吾

1*

Toyoda, T., T. Aoki, M. Niwano, T. Tanikawa, L. S. Urakawa, H. Tsujino, H. Nakano,
K. Sakamoto, N. Hirose, and G. Yamanaka, 2020: Impact of observation-basedsnow albedo parameterization on global ocean simulation results. Polar
Science, 24, 100521, doi:10.1016/j.polar.2020.100521.

今田由紀子- 223 -

6. 成果発表

遠藤洋和

大島長

6.1. 論文等

2*

Tsujino, H., L. S. Urakawa, S. M. Griffies, G. Danabasoglu, 他 38 名, 2020:
Evaluation of global ocean–sea-ice model simulations based on theexperimental protocols of the Ocean Model Intercomparison Project phase 2(OMIP-2). Geoscientific Model Development, 13, 3643-3708,
doi:10.5194/gmd-13-3643-2020.

3*

Urakawa, L. S., H. Tsujino, H. Nakano, K. Sakamoto, G. Yamanaka, and T. Toyoda,
2020: The sensitivity of a depth-coordinate model to diapycnal mixing induced
by practical implementations of the isopycnal tracer diffusion scheme. Ocean
Modelling, 154, 101693, doi:10.1016/j.ocemod.2020.101693.

4*

Nakano, H., Y. Matsumura, H. Tsujino, S. Urakawa, K. Sakamoto, T. Toyoda, G.
Yamanaka, 2021: Effects of eddies on the subduction and movement of water
masses reaching the 137◦ E section using Lagrangian particles in an
eddy-resolving OGCM. Journal of Oceanography, 77, 283-305,
doi:10.1007/s10872-020-00573-3.

1*Mizuta, R., and H. Endo, 2020: Projected changes in extreme precipitation in a
60-km AGCM large ensemble and their dependence on return periods.
Geophysical Research Letters, 47, e2019GL086855,
doi:10.1029/2019GL086855.

2

村松貴有, 加藤輝之, 中里真久, 遠藤洋和, 鬼頭昭雄, 2020: 竜巻の将来予測. 気象研究
ノート, 243, 288-297.

3*Ito, R., T. Ose, H. Endo, R. Mizuta, K. Yoshida, A. Kitoh, T. Nakaegawa, 2020:
Seasonal characteristics of future climate change over Japan and theassociated atmospheric circulation anomalies in global model experiments.
Hydrological Research Letters, 14, 130-135, doi:10.3178/hrl.14.130.

4*

Takaya, Y., I. Ishikawa, C. Kobayashi, H. Endo, and T. Ose, 2020: Enhanced
Meiyu–Baiu Rainfall in Early Summer 2020: Aftermath of the 2019 Super IOD
Event. Geophysical Research Letters, doi:10.1029/2020GL090671.

5*

Harada, Y., H. Endo, and K. Takemura, 2020: Characteristics of Large-Scale
Atmospheric Fields during Heavy Rainfall Events in Western Japan:
Comparison with an Extreme Event in Early July 2018. Journal of the
Meteorological Society of Japan, 98, 1207-1229.

6

Kitoh, A. and H. Endo, 2020: Future changes in global monsoon precipitation andtheir uncertainty: Results from 20-km and 60-km MRI-AGCM Ensemble
Simulations. The Multiscale Global Monsoon System, 343-353,
doi:10.1142/11723.

1*

Takegawa, N., T. Seto, N. Moteki, M. Koike, N. Oshima, K. Adachi, K. Kita, A.
Takami, and Y. Kondo, 2020: Enhanced new particle formation above themarine boundary layer over the Yellow Sea: Potential impacts on cloud
condensation nuclei. Journal of Geophysical Research Atmosphere,
doi:10.1029/2019JD031448.

2*

Yoshida, A., N. Moteki, S. Ohata, T. Mori, M. Koike, Y. Kondo, M. Matsui, N.
Oshima, A. Takami, and K. Kita, 2020: Abundances and microphysicalproperties of light‐absorbing iron oxide and black carbon aerosols over East
Asia and the Arctic. Journal of Geophysical Research Atmosphere, 125,e2019JD032301, doi:10.1029/2019JD032301.

3*

Zanis, P., Akritidis, D., Georgoulias, A. K., Allen, R. J., Bauer, S. E., Boucher, O.,- 224 -

6. 成果発表

6.1. 論文等

Cole, J., Johnson, B., Deushi, M., Michou, M., Mulcahy, J., Nabat, P., Olivié, D.,
Oshima, N., Sima, A., Schulz, M., Takemura, T., and Tsigaridis, K., 2020: Fast
responses on pre-industrial climate from present-day aerosols in a CMIP6
multi-model study. Atmospheric Chemistry and Physics, 20, 8381-8404,
doi:10.5194/acp-20-8381-2020.
4*

Oshima, N., S. Yukimoto, M. Deushi, T. Koshiro, H. Kawai, T. Y. Tanaka, and K.
Yoshida, 2020: Global and Arctic effective radiative forcing of anthropogenic
gases and aerosols in MRI-ESM2.0. Progress in Earth and Planetary Science,
7, 38, doi:10.1186/s40645-020-00348-w.

5*Mori, T., Y. Kondo, S. Ohata, Y. Zhao, P. R. Sinha, N. Oshima, H. Matsui, N. Moteki,and M. Koike, 2020: Seasonal variation of wet deposition of black carbon in
Arctic Alaska. Journal of Geophysical Research Atmosphere, 125,e2019JD032240, doi:10.1029/2019JD032240.

6*

Allen, R. J., S. Turnock, P. Nabat, P. Neubauer, U. Lohmann, D. Olivié, N. Oshima,
et al., 2020: Climate and air quality impacts due to mitigation of non-methanenear-term climate forcers. Atmospheric Chemistry and Physics, 20, 9641-9663,
doi:10.5194/acp-20-9641-2020.

7*

Adachi, K., Oshima, N., Gong, Z., de Sá, S., Bateman, A. P., Martin, S. T., de Brito, J.
F., Artaxo, P., Cirino, G. G., Sedlacek III, A. J., and Buseck, P. R., 2020: Mixing
states of Amazon basin aerosol particles transported over long distances usingtransmission electron microscopy. Atmospheric Chemistry and Physics, 20,
11923-11939, doi.org/10.5194/acp-20-11923-2020.

8*

Turnock, S. T., R. J. Allen, M. Andrews, S. E. Bauer, M. Deushi, L. Emmons, P.
Good, L. Horowitz, J. G. John, M. Michou, P. Nabat, V. Naik, D. Neubauer, F.
M. O'Connor, D. Olivié, N.Oshima, M. Schulz, A. Sellar, S. Shim, T. Takemura,
S. Tilmes, et al., 2020: Historical and future changes in air pollutants from
CMIP6 models. Atmospheric Chemistry and Physics, 20, 14547-14579,
doi:10.5194/acp-20-14547-2020.

9*

Moseid, K. O., M. Schulz, T. Storelvmo, I. R. Julsrud, D. Olivié, P. Nabat, M. Wild, J.
N. S. Cole, T. Takemura, N. Oshima, S. E. Bauer, and G. Gastineau, 2020: Biasin CMIP6 models as compared to observed regional dimming and brightening.
Atmospheric Chemistry and Physics, 20, 16023-16040,
doi:10.5194/acp-20-16023-2020.

10* Thornhill, G. D., W. J. Collins, R. J. Kramer, D. Olivié, R. B. Skeie, F. M. O'Connor,
N. L. Abraham, R. Checa-Garcia, S. E. Bauer, M. Deushi, L. K. Emmons, P. M.
Forster, L. W. Horowitz, B. Johnson, J. Keeble, J.-F. Lamarque, M. Michou, etal., 2021: Effective radiative forcing from emissions of reactive gases andaerosols – a multi-model comparison. Atmospheric Chemistry and Physics, 21,853-874.
11* 庭野匡思, 青木輝夫, 橋本明弘, 大島 長, 梶野瑞王, 大沼友貴彦, 藤田耕史, 山口 悟,
島田利元, 竹内 望, 津滝 俊, 本山秀明, 石井正好, 杉山 慎, 平沢尚彦, 阿部彩子,
2021: 氷床表面質量収支の実態とそのモデリングの試み：2020 年夏最新版. 雪氷,
83, 27-50.
12* 青木輝夫, 的場澄人, 庭野匡思, 朽木勝幸, 谷川朋範, 竹内望, 山口悟, 本山秀明, 藤田耕史, 山崎哲秀, 飯塚芳徳, 堀雅裕, 島田利元, 植竹淳, 永塚尚子, 大沼友貴彦, 橋
本明弘, 石元裕史, 田中泰宙, 大島長, 梶野瑞王, 足立光司, 黒﨑豊, 杉山慎, 津滝俊, 東久美子, 八久保晶弘, 川上薫, 木名瀨健, 2021: SIGMA 及び関連プロジェク- 225 -

6. 成果発表

6.1. 論文等

トによるグリーンランド氷床上の大気・雪氷・雪氷微生物研究− ArCS II プロジェ
クトへのつながり −. 雪氷, 83(2).
13* Allen, R. J., L. W. Horowitz, V. Naik, N. Oshima, F. M. O'Connor, S. Turnock, S.
Shim, P. Le Sager, T. van Noije, K. Tsigaridis, S. E. Bauer, L. T. Sentman, J. G.
John, C. Broderick, M. Deushi, G. A. Folberth, S. Fujimori, and W. J. Collins,
2021: Significant climate benefits from near-term climate forcer mitigation inspite of aerosol reductions. Environmental Research Letters, 16, 034010.
14* Adachi, K., Oshima, N., Ohata, S., Yoshida, A., Moteki, N., and Koike, M., 2021:
Compositions and mixing states of aerosol particles by aircraft observations in
the Arctic springtime, 2018. Atmospheric Chemistry and Physics, 21,3607-3626, doi:10.5194/acp-21-3607-2021.
15* P. T. Griffiths, L. T. Murray, G. Zeng, Y. M. Shin, N. L. Abraham, A. T. Archibald, M.
Deushi, L. K. Emmons, I. Galbally, B. Hassler, L. W. Horowitz, J. Keeble, J.
Liu, O. Moeini, V. Naik, F. M. O' Conner, N. Oshima et al., 2021: Troposphericozone in CMIP6 Simulations. Atmospheric Chemistry and Physics, 21,4187-4218.
16* Aizawa, T., M. Ishii, N. Oshima, S. Yukimoto, and H. Hasumi, 2021: Arctic warming
and associated sea ice reduction in the early 20th century induced by naturalforcings in MRI-ESM2.0 climate simulations and multi-model analyses.
Geophysical Research Letters, 48.
17* Koike, M., K. Goto-Azuma, Y. Kondo, H. Matsui, T. Mori, N. Moteki, S. Ohata, H.
Okamoto, N. Oshima, K. Sato, T. Takano, Y. Tobo, J. Ukita, and A. Yoshida,2021: Studies on Arctic aerosols and clouds during the ArCS project. Polar
Science, doi:10.1016/j.polar.2020.100621.
18* Amino, T., Y. Iizuka, S. Matoba, R. Shimda, N. Oshima, T. Suzuki, T. Ando, T. Aoki,
and K. Fujita, 2021: Increasing dust emission from ice free terrain insoutheastern Greenland since 2000. Polar Science, 27.
岡本幸三

1

Wada, A., and K. Okamoto, 2020: Atmosphere-wave-ocean coupled-model simulationon the effect of Himawari-8 all-sky infrared radiances assimilation on the track
simulation of Typhoon Jongdari (2018). Research Activities in Earth System
Modelling, 50, 9-17.

2*

Okamoto, K., H. Owada, T. Fujita, M. Kazumori, M. Otsuka, H. Seko, Y. Ota, N.
Uekiyo, H. Ishimoto, M. Hayashi, H. Ishida, A. Ando, M. Takahashi, K. Bessho,
H. Yokota, 2020: Assessment of the potential impact of a hyperspectral infraredsounder on the Himawari follow-on geostationary satellite. SOLA, 16, 162-168,
doi:10.2151/sola.2020-028.

3

岡本幸三, 2020: 2018 年度秋季大会シンポジウム「未来を拓く気象観測のあり方」の報
告 3. 衛星データ同化・再解析. 天気, 67, 645-648.

4*

Ikuta, Y., Okamoto, K. and T. Kubota, 2021: One‐dimensional maximum‐
likelihood estimation for spaceborne precipitation radar data assimilation.
Quarterly Journal of the Royal Meteorological Society, 147, 858-875,
doi:10.1002/qj.3950.

5

岡本幸三、大和田浩美、藤田匡、別所康太朗、高橋昌也、太田芳文、計盛正博、大塚道子、瀬古弘、石田春磨 、上清直隆、石元裕史 、林昌宏 、安藤昭芳、横田寛伸, 2021:
ひまわり 8・9 号後継衛星検討のためのハイパースペクトル赤外サウンダの数値
予報インパクト調査. 測候時報, 87, 99-150.

- 226 -

6. 成果発表

6.1. 論文等

小木曽仁

1*

Ogiso, M., K. Yomogida, 2021: Estimation of relative source locations from seismic
amplitude: application to earthquakes and tremors at Meakandake volcano,eastern Hokkaido, Japan. Earth, Planets and Space, 73, 29,
doi:10.1186/s40623-021-01366-8.

尾瀬智昭

1*

Ito, R., T. Ose, H. Endo, R. Mizuta, K. Yoshida, A. Kitoh, T. Nakaegawa, 2020:
Seasonal characteristics of future climate change over Japan and theassociated atmospheric circulation anomalies in global model experiments.
Hydrological Research Letters, 14, 130-135, doi:10.3178/hrl.14.130.

2*

Ose, T., Y. Takaya, S. Maeda, and T. Nakagawa, 2020: Resolution of summertime
East Asian pressure pattern and southerly monsoon wind in CMIP5
multi-model future projections. Journal of the Meteorological Society of Japan,
98, 927-944, doi:10.2151/jmsj.2020-047.

3*

Takaya, Y., I. Ishikawa, C. Kobayashi, H. Endo, and T. Ose, 2020: Enhanced
Meiyu–Baiu Rainfall in Early Summer 2020: Aftermath of the 2019 Super IOD
Event. Geophysical Research Letters, doi:10.1029/2020GL090671.

小野耕介

1*

Ono, K., M. Kunii, and Y. Honda, 2021: The regional model‐based Mesoscale
Ensemble Prediction System, MEPS, at the Japan Meteorological Agency.
Quarterly Journal of the Royal Meteorological Society, 147, 465-484,
doi:10.1002/qj.3928.

小野恒

1*

Masao Ishii, Keith B. Rodgers, Hisayuki Y. Inoue, Katsuya Toyama, Daisuke
Sasano, Naohiro Kosugi, Hisashi Ono, Kazutaka Enyo, Toshiya Nakano,Daniele Iudicone, Bruno Blanke, Olivier Aumont, and Richard A. Feely, 2020:
Ocean Acidification From Below in the Tropical Pacific. Global Biogeochemical
Cycles, 34, e2019GB006368.

折笠成宏

1*

Orikasa, N., M. Murakami, T. Tajiri, Y. Zaizen, and T. Shinoda, 2020: In Situ
Measurements of Cloud and Aerosol Microphysical Properties in Summertime
Convective Clouds over Eastern United Arab Emirates. SOLA, 16, 185-191,
doi:10.2151/sola.2020-032.

2*

Orikasa, N., A. Saito, K. Yamashita, T. Tajiri, Y. Zaizen, T.-H. Kuo, W.-C. Kuo, andM. Murakami, 2020: Seasonal Variations of Atmospheric Aerosol Particles
Focused on Cloud Condensation Nuclei and Ice Nucleating Particles from
Ground-Based Observations in Tsukuba, Japan. SOLA, 16, 212-219,
doi:10.2151/sola.2020-036.

3佐藤陽祐, 當房豊, 山下克也, 荒木健太郎, 岩崎杉紀, 三隅良平, 大竹秀明, 茂木信宏,
齋藤泉, 川合秀明, 中島孝, 中野諭, 森樹大, 橋本明弘, 郭威鎮, 勝山祐太, 瀬戸里枝, 古藤慎之, 山田怜史, 折笠成宏, 田尻拓也, 遠藤幸生, 近藤誠, 大畑祥, 松嶋俊樹, 2020: 2019 年度「エアロゾル・雲・降水の相互作用に関する研究会」報告. 天気, 67, 665-670.

1*

Katata G., K. Matsuda, A. Sorimachi, M. Kajino, K. Takagi,, 2020: Effects of aerosol
dynamics and gas-particle conversion on dry deposition of inorganic reactive
nitrogen in a temperate forest. Atmospheric Chemistry and Physics, 20,4933-4949.

2*

Sekiyama, T. and M. Kajino,, 2020: Reproducibility of surface wind and tracer
transport simulations over complex terrain using 5-, 3-, and 1-km grid models.
Journal of Applied Meteorology and Climatology, 59(5), 937–952.

3*

Takigawa, M., P. K. Patra, Y. Matsumi, S. K. Dhaka, T. Nakayama, K. Yamaji, M.

梶野瑞王- 227 -

6. 成果発表

6.1. 論文等

Kajino, and S. Hayashida, 2020: Can Delhi’s pollution be affected by crop fires
in the Punjab region?. SOLA, 16, 86-91, doi:10.2151/sola.2020-015.
4*

Tan, J., J. S. Fu, G. R. Carmichael, S. Itahashi, Z. Tao, K. Huang, X. Dong, K.
Yamaji, T. Nagashima, X. Wang, Y. Liu, H.-J. Lee, C.-Y. Lin, B. Ge, M. Kajino,
J. Zhu, M. Zhang, L. Hong, and Z. Wang,, 2020: Why do models performdifferently on particulate matter over East Asia? A multi-modelintercomparison study for MICS-Asia III. Atmospheric Chemistry and Physics,
20(12), 7393-7410, doi:10.5194/acp-20-7393-2020.

5

Joseph Ching and Mizuo Kajino, 2020: Rethinking Air Quality and Climate Change
after COVID-19. International Journal of Environmental Research and Public
Health, 2020, 17(14), 5167, doi:10.3390/ijerph17145167.

6*

Kajino, M., H. Hagino, Y. Fujitani, T. Morikawa, T. Fukui, K. Onishi, T. Okuda, T.
Kajikawa, and Y. Igarashi, 2020: Modeling transition metals in East Asia andJapan and its emission sources. GeoHealth, 4, e2020GH000259,
doi:10.1029/2020GH000259. (in press)

7*

Dhaka, S. K., Chetna, V. Kumar, V. Panwar, A. P. Dimri, N. Singh, P. K. Patra, Y.
Matsumi, M. Takigawa, T. Nakayama, K. Yamaji, M. Kajino, P. Misra, and S.
Hayashida, 2020: PM2.5 diminution and haze events over Delhi during the
COVID-19 lockdown period: an interplay between the baseline pollution andmeteorology. Scientific Reports, 10, 13442, doi:10.1038/s41598-020-70179-8.

8*Dragović, S., M. Yamauchi, M. Aoyama, M. Kajino, J. Petrović, M. Ćujić, R.
Dragović, M. Đorđević, J. Bór,, 2020: Synthesis of studies on significant
atmospheric electrical effects of major nuclear accidents in Chrnobyl and
Fukushima. Science of Total Environment, 733, 139271.

9*

Ge, B., S. Itahashi, K. Sato, D. Xu, J. Wang, F. Fan, Q. Tan, J. S. Fu, X. Wang, K.
Yamaji, T. Nagashima, J. Li, M. Kajino, H. Liao, M. Zhang, Z. Wang, M. Li,
J.-H. Woo, J. Kurokawa, Y. Pan, Q. Wu, X. Liu, and Z. Wang, 2020: Model
Inter-Comparison Study for Asia (MICS-Asia) phase III: Multi-modelcomparison of reactive nitrogen deposition over China. Atmospheric Chemistry
and Physics, 20, 10587-10610.

10

Sato, Y., T. T. Sekiyama, S. Fang, M. Kajino, A. Quérel, D. Quélo, H. Kondo, H.
Terada, M. Kadowaki, M. Takigawa, Y. Morino, J. Uchida, D. Goto, and H.
Yamazawa,, 2020: A Model intercomparison of atmospheric 137Csconcentrations from the Fukushima Daiichi Nuclear Power Plant accident,
Phase III: Simulation with an identical source term and meteorological field at
1 km resolution. Atmospheric Environment: X, 7.

11* Kubota, T., H. Kuroda, M. Watanabe, A. Takahashi, R. Nakazato, M. Tarui, S.
Matsumoto, K. Nakagawa, Y. Numata, T. Ouchi, H. Hosoi, M. Nakagawa, R.
Shinohara, M. Kajino, K. Fukushima, Y. Igarashi, N. Imamura, G. Katata,2020: Role of advection in atmospheric ammonia: A case study at a Japaneselake basin influenced by agricultural ammonia sources. Atmospheric
Environment, 243, 117856.
12* Kinase, T., K. Adachi, T. T. Sekiyama, M. Kajino, Y. Zaizen, and Y. Igarashi, 2020:
Temporal variations of 90Sr and 137Cs in atmospheric depositions after the
Fukushima Daiichi Nuclear Power Plant accident with long-term observations.
Scientific Reports, 10, 21627, doi:10.1038/s41598-020-78312-3.

- 228 -

6. 成果発表

6.1. 論文等

13

Ching, J., M. Kajino, and H. Matsui, 2020: Resolving aerosol mixing state increases
accuracy of black carbon respiratory deposition estimates. One Earth, 3,763-776, doi:10.1016/j.oneear.2020.11.004.

14* 川端康弘, 梶野瑞王, 財前祐二, 足立光司, 田中泰宙, 清野直子, 2021: 東京都心における視程の変化. 天気（論文・短報）, 68, 5-12.
15* 高橋麗, 梶野瑞王, 津口裕茂, 林修吾, 橋本明弘, 2021: 雲凝結核が降水に与える影響―
平成 27 年 9 月関東・東北豪雨を対象として―. エアロゾル研究, 36, 55-64,
doi:10.11203/jar.36.55.
16* Kajino, M., K. Adachi, Y. Igarashi, Y. Satou, M. Sawada, T. T. Sekiyama, Y. Zaizen,
A. Saya, H. Tsuruta, and Y. Moriguchi, 2021: Deposition and dispersion ofradio-cesium released due to the Fukushima nuclear accident: 2. Sensitivity toaerosol microphysical properties of Cs-bearing microparticles (CsMP). Journalof Geophysical Research Atmosphere, 126, e2020jd033460,
doi:10.1029/2020JD033460.
17* 庭野匡思, 青木輝夫, 橋本明弘, 大島 長, 梶野瑞王, 大沼友貴彦, 藤田耕史, 山口 悟,
島田利元, 竹内 望, 津滝 俊, 本山秀明, 石井正好, 杉山 慎, 平沢尚彦, 阿部彩子,
2021: 氷床表面質量収支の実態とそのモデリングの試み：2020 年夏最新版. 雪氷,
83, 27-50.
18* 青木輝夫, 的場澄人, 庭野匡思, 朽木勝幸, 谷川朋範, 竹内望, 山口悟, 本山秀明, 藤田耕史, 山崎哲秀, 飯塚芳徳, 堀雅裕, 島田利元, 植竹淳, 永塚尚子, 大沼友貴彦, 橋
本明弘, 石元裕史, 田中泰宙, 大島長, 梶野瑞王, 足立光司, 黒﨑豊, 杉山慎, 津滝俊, 東久美子, 八久保晶弘, 川上薫, 木名瀨健, 2021: SIGMA 及び関連プロジェク
トによるグリーンランド氷床上の大気・雪氷・雪氷微生物研究− ArCS II プロジェ
クトへのつながり −. 雪氷, 83(2).
19* Kajino, M., H. Hagino, Y. Fujitani, T. Morikawa, T. Fukui, K. Onishi, T. Okuda, andY. Igarashi, 2021: Simulation of the transition metal-based cumulativeoxidative potential in East Asia and its emission sources in Japan. Scientific
Reports, 11, 6550, doi:10.1038/s41598-021-85894-z.
川合秀明

1Kawai, H., T. Koshiro, and S. Yukimoto, 2020: Relationship between shortwave
radiation bias over the Southern Ocean and the ITCZ in MRI-ESM2. CAS/JSC
WGNE Research Activities in Earth System Modelling/WMO, 50, 709-710.

2

Kawai, H., and T. Koshiro, 2020: Does Radiative Cooling of Stratocumulus
Strengthen Summertime Subtropical Highs?. CAS/JSC WGNE Research
Activities in Earth System Modelling/WMO, 50, 711-712.

3

Koshiro, T., H. Kawai, and S. Yukimoto, 2020: Impact of cloud microphysics
parameter on 20th century warming simulated in MRI-CGCM3. CAS/JSC
WGNE Research Activities in Earth System Modelling, 50, 713-714.

4*

Oshima, N., S. Yukimoto, M. Deushi, T. Koshiro, H. Kawai, T. Y. Tanaka, and K.
Yoshida, 2020: Global and Arctic effective radiative forcing of anthropogenic
gases and aerosols in MRI-ESM2.0. Progress in Earth and Planetary Science,
7, 38, doi:10.1186/s40645-020-00348-w.

5

佐藤陽祐, 當房豊, 山下克也, 荒木健太郎, 岩崎杉紀, 三隅良平, 大竹秀明, 茂木信宏,
齋藤泉, 川合秀明, 中島孝, 中野諭, 森樹大, 橋本明弘, 郭威鎮, 勝山祐太, 瀬戸里枝, 古藤慎之, 山田怜史, 折笠成宏, 田尻拓也, 遠藤幸生, 近藤誠, 大畑祥, 松嶋俊樹, 2020: 2019 年度「エアロゾル・雲・降水の相互作用に関する研究会」報告. 天気, 67, 665-670.

- 229 -

6. 成果発表

川瀬宏明

川畑拓矢

川端康弘

楠研一

6.1. 論文等

6*

Kawai, H., and S. Shige, 2020: Marine low clouds and their parameterization inclimate models. Journal of the Meteorological Society of Japan, 98, 1097-1127,
doi:10.2151/jmsj.2020-059.

1*

Nosaka, M., M. Ishii, H. Shiogama, R. Mizuta, A. Murata, H. Kawase, and H.
Sasaki, 2020: Scalability of future climate changes across Japan examined withlarge-ensemble simulations at +1.5 K, +2 K, and +4 K global warming levels.
Progress in Earth and Planetary Science, doi:10.1186/s40645-020-00341-3.

2*

伊藤昌資, 菅野豊, 大八木豊, 西澤諒亮, 川瀬宏明, 佐々井崇博, 杉本志織, 川﨑将生,
中北英一, 2020: 気候変動が淀川水系の渇水リスクに及ぼす影響. 水文・水資源学
会誌, 33, 83-97.

3*Miyasaka, T., H. Kawase, T. Nakaegawa, Y. Imada, and I. Takayabu, 2020: Future
projections of heavy precipitation in Kanto and associated weather patterns
using large ensemble high-resolution simulations. SOLA, 16, 125-131,
doi:10.2151/sola.2020-022.

4*

Ohba, M. and H. Kawase, 2020: Rain-on-Snow events in Japan as projected by alarge ensemble of regional climate simulations. Climate Dynamics.

5*

Imada, Y., H. Kawase, M. Watanabe, H. Shiogama, M. Arai, and I. Takayabu, 2020:
Advanced event attribution for heavy regional rainfall events.. npj Climate andAtmospheric Science, 3, 35.

6*

Kawase,H., M. Yamaguchi, Y. Imada,S. Hayashi, A. Murata, T. Nakaegawa, T.
Miyasaka, I. Takayabu, 2020: Enhancement of extremely heavy precipitationinduced by Typhoon Hagibis (2019) due to historical warming. SOLA, 17A,
7-13.

7*

Kawase, H., A. Murata, K. Yamada, T. Nakaegawa, R. Ito, R. Mizuta, M. Nosaka, S.
Watanabe, H. Sasaki, 2020: Regional characteristics of future changes insnowfall in Japan under RCP2.6 and RCP8.5 scenarios. SOLA, 17.

8*

Murata, A., S. I. Watanabe, H. Sasaki, H. Kawase, and M. Nosaka, 2020: Assessing
goodness of fit to gamma distribution and estimating future projection on daily
precipitation frequency using regional climate model simulations over Japan
with and without the influence of tropical cyclones. Journal of
Hydrometeorology, 21, 2997-3010, doi:10.1175/JHM-D-20-0068.1.

1

川畑拓矢 上野玄太 中野慎也 藤井陽介 三好建正 小守信正 増田周平 眞木貴史 土居知
将 野村俊一 雨宮新 山崎哲 露木義, 2020: 第 10 回データ同化ワークショップの報告. 天気, 67, 455.

2*

Le Duc, T. Kawabata, K. Saito, T. Oizumi, 2021: Forecasts of the July 2020 Kyushu
Heavy Rain Using a 1000-Member Ensemble Kalman Filter. SOLA, 17, 41-47,
doi:10.2151/sola.2021-007.

3

佐藤正樹, 川畑拓矢, 宮川知己, 八代尚, 三好建正, 2021: 「富岳」による新時代の大アンサンブル気象・大気環境予測. 繊維学会誌, 77, 54.

1*

Kawabata, Y., and M. Yamaguchi, 2020: Probability ellipse for tropical cyclone track
forecasts with multiple ensembles. Journal of the Meteorological Society ofJapan, 98, 821-833, doi:10.2151/jmsj.2020-042.

2*

川端康弘, 梶野瑞王, 財前祐二, 足立光司, 田中泰宙, 清野直子, 2021: 東京都心における視程の変化. 天気（論文・短報）, 68, 5-12.

1

足立透, 坪木 和久, 牛尾 知雄, 高橋暢宏, 川口航平, 纐纈丈晴, 岩波越, 楠研一, 松田知也, 新野宏, 中川勝広, 2020: 気象災害委員会・第 52 回メソ気象研究会合同研究- 230 -

6. 成果発表

6.1. 論文等会の報告. 天気, 67(6), 31-35.
工藤玲

神代剛

小杉如央

2

楠 研一, 2020: 冬季日本海側の竜巻等突風の観測. 気象研究ノート, 243, 77-98.

1*

Masahiro Momoi, Rei Kudo, Kazuma Aoki, Tatsuhiro Mori, Kazuhiko Miura,
Hiroshi Okamoto, Hitoshi Irie, Yoshinori Shoji, Akihiro Uchiyama, Osamu
Ijima, Matsumi Takano, and Teruyuki Nakajima, 2020: Development of on-site
self-calibration and retrieval methods for sky-radiometer observations ofprecipitable water vapor. Atmospheric Measurement Techniques, 13,2635-2658.

2

Chaikovsky, A., Bril, A., Dubovik, O., Fedarenka, A., Goloub, P., Hu, Q., Lopatin, A.,
Lapyonok, T., Miatselskaya, N., Torres, B., Fuertes, D., Peshcharankou, V.,
Podvin, T., Popovici, I., Liu, D., Li, Z., Soupiona, O., Mylonaki, M., Mona, L.,
Giunta, A.,, 2020: Synergetic Observations by Ground-Based and Space Lidar
Systems and Aeronet Sun-Radiometers: A Step to Advanced Regional
Monitoring of Large Scale Aerosol Changes. EPJ Web of Conferences, 237.

3*

Nakajima, T., M. Campanelli, H. Che, V. Estelles, H. Irie, S. Kim, J. Kim, D. Liu, T.
Nishizawa, G. Pandithurai, V. Soni, B. Thana, N. Tugjsurn, K. Aoki, S. Go, M.
Hashimoto, A. Higurashi, S. Kazadzis, P. Khatri, R. Kudo, A. Yamazaki, and 6others., 2020: An overview of and issues with sky radiometer technology and
SKYNET. Atmospheric Measurement Techniques, 13, 4195-4218.

4*

Goto, D., Sato, Y., Yashiro, H., Suzuki, K., Oikawa, E., Kudo, R., Nagao, T. M., andNakajima, T., 2020: Global aerosol simulations using NICAM.16 on a 14 km
grid spacing for a climate study: improved and remaining issues relative to alower-resolution model. Geoscientific Model Development, 13, 3731-3768.

1

Kawai, H., T. Koshiro, and S. Yukimoto, 2020: Relationship between shortwave
radiation bias over the Southern Ocean and the ITCZ in MRI-ESM2. CAS/JSC
WGNE Research Activities in Earth System Modelling/WMO, 50, 709-710.

2

Kawai, H., and T. Koshiro, 2020: Does Radiative Cooling of Stratocumulus
Strengthen Summertime Subtropical Highs?. CAS/JSC WGNE Research
Activities in Earth System Modelling/WMO, 50, 711-712.

3

Koshiro, T., H. Kawai, and S. Yukimoto, 2020: Impact of cloud microphysics
parameter on 20th century warming simulated in MRI-CGCM3. CAS/JSC
WGNE Research Activities in Earth System Modelling, 50, 713-714.

4*

Oshima, N., S. Yukimoto, M. Deushi, T. Koshiro, H. Kawai, T. Y. Tanaka, and K.
Yoshida, 2020: Global and Arctic effective radiative forcing of anthropogenic
gases and aerosols in MRI-ESM2.0. Progress in Earth and Planetary Science,
7, 38, doi:10.1186/s40645-020-00348-w.

5*

Tebaldi, C., and Coauthors, 2021: Climate model projections from the Scenario
Model Intercomparison Project (ScenarioMIP) of CMIP6. Earth System
Dynamics, 12, 253-293, doi:10.5194/esd-12-253-2021.

1*

Masao Ishii, Keith B. Rodgers, Hisayuki Y. Inoue, Katsuya Toyama, Daisuke
Sasano, Naohiro Kosugi, Hisashi Ono, Kazutaka Enyo, Toshiya Nakano,Daniele Iudicone, Bruno Blanke, Olivier Aumont, and Richard A. Feely, 2020:
Ocean Acidification From Below in the Tropical Pacific. Global Biogeochemical
Cycles, 34, e2019GB006368.

2*

Yasunori Tohjima, Jiye Zeng, Tomoko Shirai, Yosuke Niwa, Shigeyuki Ishidoya,
Fumikazu Taketani, Daisuke Sasano, Naohiro Kosugi, Sohiko Kameyama,- 231 -

6. 成果発表

6.1. 論文等

Hisahiro Takashima, Hideki Nara, Shinji Morimoto, 2020: Estimation of CH4
emissions from the East Siberian Arctic Shelf based on atmosphericobservations aboard the R/V Mirai during fall cruises from 2012 to 2017. Polar
Science, 27, doi:10.1016/j.polar.2020.100571.

小寺祐貴

小林昭夫

小林ちあき

3*

Naohiro Kosugi, Nariaki Hirose, Takahiro Toyoda and Masao Ishii, 2020: Rapid
freshening of Japan Sea Intermediate Water in the 2010s. Journal of
Oceanography, 76, doi:10.1007/s10872-020-00570-6.

4*

Sakae Toyoda, Takahito Kakimoto, Kushi Kudo, Naohiro Yoshida, Daisuke Sasano,
Naohiro Kosugi, Masao Ishii, Sohiko Kameyama, Mahomi Inagawa, Hisayuki
Yoshikawa‐Inoue, Shigeto Nishino, Akihiko Murata, Shigeyuki Ishidoya, andShinji Morimoto, 2021: Distribution and Production Mechanisms of N2O in theWestern Arctic Ocean. Global Biogeochemical Cycles, 35, e2020GB006881,
doi:10.1029/2020GB006881.

1*

Minson, S., J. Saunders, J. Bunn, E. Cochran, A. Baltay, D. Kilb, M. Hoshiba, and Y.
Kodera, 2020: Real-Time Performance of the PLUM Earthquake Early
Warning Method during the 2019 M6.4 and 7.1 Ridgecrest, California,
Earthquakes. Bulletin of the Seismological Society of America, 110(4),1887-1903, doi:10.1785/0120200021.

2*

Kilb, D., J. Bunn, J. Saunders, E. Cochran, S. Minson, A. Baltay, C. O'Rourke, M.
Hoshiba and Y. Kodera, 2020: THE PLUM EARTHQUAKE EARLYWARNING ALGORITHM: A RETROSPECTIVE CASE STUDY OF WEST
COAST, USA, DATA. Journal of Geophysical Research Solid Earth, 126,e2020JB021053, doi:10.1029/2020JB021053.

3

小寺祐貴, 2020: 特集：若手研究者・技術者から見た地震工学 《若手研究者・技術者に訊く》. 日本地震工学会誌, 41, 47-48.

1

宮岡一樹, 小林昭夫, 2020: 南海トラフ地域のスロー地震 (2)気象庁・気象研究所による観測. 地震予知連絡会 50 年のあゆみ, 148-150.

2

気象研究所, 2020: 全国 GNSS 観測点のプレート沈み込み方向の位置変化. 地震予知連
絡会会報, 104, 22-26.

3

気象研究所, 2020: 南海トラフ沿いの長期的スロースリップの客観検知. 地震予知連絡会会報, 104, 366-368.

4*小林昭夫, 2021: GNSS による長期的スロースリップ客観検出手法の応用 ―短期的スロースリップの検出と長期的スロースリップの規模推定― . 気象研究所研究報告,
69, 1-14, doi:10.2467/mripapers.69.1.

5

気象研究所, 2021: 全国 GNSS 観測点のプレート沈み込み方向の位置変化. 地震予知連
絡会会報, 105, 37-41.

6

気象研究所, 2021: 南海トラフ沿いの長期的スロースリップの客観検知. 地震予知連絡会会報, 105, 373-377.

1*

Robertson, F.R., J. B. Roberts1, M. G. Bosilovich, A. Bentamy, M. Schroeder, H.
Tomita, C. A. Clayson, G. P. Compo, M. Gutenstein, C. Kobayashi, P.
Sardeshmukh, L. C. Slivinski, 2020: Ocean Latent Heat Flux Uncertainties at
Interannual to Inter-decadal Scales in Satellite Retrievals and Reduced
Observation Reanalyses.. Journal of Climate, doi:10.1175/JCLI-D-19-0954.1.

2*

Takaya, Y., I. Ishikawa, C. Kobayashi, H. Endo, and T. Ose, 2020: Enhanced
Meiyu–Baiu Rainfall in Early Summer 2020: Aftermath of the 2019 Super IOD
Event. Geophysical Research Letters, doi:10.1029/2020GL090671.
- 232 -

6. 成果発表

財前祐二

酒井哲

坂本圭

6.1. 論文等

3*

Kobayashi, C., Y. Fujii, I. Ishikawa, 2021: Intraseasonal SST-Precipitation
Relationship in a coupled reanalysis experiment using the MRI coupledatmosphere-ocean data assimilation system. Climate Dynamics,
doi:10.1007/s00382-020-05592-w.

4*

Fujii, Y., T. Ishibashi, T. Yasuda, Y. Takaya, C. Kobayashi, and I. Ishikawa, 2021:
Improvements in tropical precipitation and sea surface air temperature fields
in a coupled atmosphere–ocean data assimilation system. Quarterly Journal of
the Royal Meteorological Society, 147, 1317-1343, doi:10.1002/qj.3973.

1*

Orikasa, N., M. Murakami, T. Tajiri, Y. Zaizen, and T. Shinoda, 2020: In Situ
Measurements of Cloud and Aerosol Microphysical Properties in Summertime
Convective Clouds over Eastern United Arab Emirates. SOLA, 16, 185-191,
doi:10.2151/sola.2020-032.

2*

Orikasa, N., A. Saito, K. Yamashita, T. Tajiri, Y. Zaizen, T.-H. Kuo, W.-C. Kuo, andM. Murakami, 2020: Seasonal Variations of Atmospheric Aerosol Particles
Focused on Cloud Condensation Nuclei and Ice Nucleating Particles from
Ground-Based Observations in Tsukuba, Japan. SOLA, 16, 212-219,
doi:10.2151/sola.2020-036.

3*

Kinase, T., K. Adachi, T. T. Sekiyama, M. Kajino, Y. Zaizen, and Y. Igarashi, 2020:
Temporal variations of 90Sr and 137Cs in atmospheric depositions after the
Fukushima Daiichi Nuclear Power Plant accident with long-term observations.
Scientific Reports, 10, 21627, doi:10.1038/s41598-020-78312-3.

4*

川端康弘, 梶野瑞王, 財前祐二, 足立光司, 田中泰宙, 清野直子, 2021: 東京都心における視程の変化. 天気（論文・短報）, 68, 5-12.

5*Kajino, M., K. Adachi, Y. Igarashi, Y. Satou, M. Sawada, T. T. Sekiyama, Y. Zaizen,
A. Saya, H. Tsuruta, and Y. Moriguchi, 2021: Deposition and dispersion ofradio-cesium released due to the Fukushima nuclear accident: 2. Sensitivity toaerosol microphysical properties of Cs-bearing microparticles (CsMP). Journalof Geophysical Research Atmosphere, 126, e2020jd033460,
doi:10.1029/2020JD033460.

1*

酒井 哲, 吉田 智, 永井 智広, 小司禎教, 2020: 豪雨予測に向けた水蒸気ライダーの開発と観測データを用いた研究. レーザー研究, 48, 595-598.

2*

Fujiwara, M., T. Sakai, T. Nagai, K. Shiraishi, Y. Inai, S. Khaykin, H. Xi, T. Shibata,
M. Shiotani, and L. L. Pan, 2021: Lower-stratospheric aerosol measurements ineastward shedding vortices over Japan from the Asian summer monsoon
anticyclone during the summer of 2018. Atmospheric Chemistry and Physics,
21, 3073-3090, doi:10.5194/acp-21-3073-2021.

1*

Toyoda, T., T. Aoki, M. Niwano, T. Tanikawa, L. S. Urakawa, H. Tsujino, H. Nakano,
K. Sakamoto, N. Hirose, and G. Yamanaka, 2020: Impact of observation-basedsnow albedo parameterization on global ocean simulation results. Polar
Science, 24, 100521, doi:10.1016/j.polar.2020.100521.

2*

Urakawa, L. S., H. Tsujino, H. Nakano, K. Sakamoto, G. Yamanaka, and T. Toyoda,
2020: The sensitivity of a depth-coordinate model to diapycnal mixing induced
by practical implementations of the isopycnal tracer diffusion scheme. Ocean
Modelling, 154, 101693, doi:10.1016/j.ocemod.2020.101693.

3*

Nakano, H., Y. Matsumura, H. Tsujino, S. Urakawa, K. Sakamoto, T. Toyoda, G.
Yamanaka, 2021: Effects of eddies on the subduction and movement of water- 233 -

6. 成果発表

6.1. 論文等

masses reaching the 137◦ E section using Lagrangian particles in an
eddy-resolving OGCM. Journal of Oceanography, 77, 283-305,
doi:10.1007/s10872-020-00573-3.

佐々木秀孝

佐藤英一

嶋田宇大

4*

Nishikawa, S., T. Wakamatsu, H. Ishizaki, K. Sakamoto, Y. Tanaka, H. Tsujino, G.
Yamanaka, M. Kamachi and Y. Ishikawa, 2021: Development ofhigh-resolution future ocean regional projection datasets for coastal
applications in Japan. Progress in Earth and Planetary Science, 8, 7,
doi:10.1186/s40645-020-00399-z.

1*

Nosaka, M., M. Ishii, H. Shiogama, R. Mizuta, A. Murata, H. Kawase, and H.
Sasaki, 2020: Scalability of future climate changes across Japan examined withlarge-ensemble simulations at +1.5 K, +2 K, and +4 K global warming levels.
Progress in Earth and Planetary Science, doi:10.1186/s40645-020-00341-3.

2*

Fredolin Tangang, et al., 2020: Projected future changes in rainfall in Southeast Asia
based on CORDEX–SEA multi-model simulations. Climate Dynamics, 55,
1247–1267.

3*

Sheau Tieh Ngai, Hidetaka Sasaki, Akihiko Murata, Masaya Nosaka, Jing Xiang
Chung, Liew Juneng, Supari, Ester Salimun, and Fredolin Tangang, 2020:
Extreme Rainfall Projections for Malaysia at the End of 21st Century Using theHigh Resolution Non-Hydrostatic Regional Climate Model (NHRCM) . SOLA,
１６巻, 132-139.

4*

Kawase, H., A. Murata, K. Yamada, T. Nakaegawa, R. Ito, R. Mizuta, M. Nosaka, S.
Watanabe, H. Sasaki, 2020: Regional characteristics of future changes insnowfall in Japan under RCP2.6 and RCP8.5 scenarios. SOLA, 17.

5

Tinumbang, A.F.A, K. Yorozu, Y. Tachikawa, Y. Ichikawa, H. Sasaki, T.
Nakaegawa, 2020: Impacts of model structures and soil parameters on runoff
characteristics in land surface models . 土木学会論文集(水工学), 76.

6*

Murata, A., S. I. Watanabe, H. Sasaki, H. Kawase, and M. Nosaka, 2020: Assessing
goodness of fit to gamma distribution and estimating future projection on daily
precipitation frequency using regional climate model simulations over Japan
with and without the influence of tropical cyclones. Journal of
Hydrometeorology, 21, 2997-3010, doi:10.1175/JHM-D-20-0068.1.

7*

Takayabu, T., N. N. Ishizaki, T. Nakaegawa, H. Sasaki, and W. Wongseree, 2021:
Potential of representing the diurnal cycle of local-scale precipitation innortheastern Thailand using 5-km and 2-km grid regional climate models.
Hydrological Research Letters, 15, 1-8, doi:10.3178/hrl.15.1.

1

日本風工学会風災害研究会, 2020: 風災害研究会 2019 年次報告. 日本風工学会誌, 45-2,
149-152.

2

小林 文明, 佐藤 英一, 髙舘 祐貴, 松井 正宏, 木村 吉郎, ガヴァンスキ 江梨, 2020:【速報】台風 1919 号(HAGIBIS)がもたらした強風災害について. 日本風工学会誌,
45-2, 126-130.

3

山内洋, 佐藤英一, 鈴木修, 2020: 竜巻観測技術の展望. 気象研究ノート「竜巻を識る」,
243, 123-128.

4

真木雅之, 小堀壮彦, 西隆昭, 藤吉康志, 徳島秀彦, 佐藤英一, 井口正人, 爲栗健, 2020:
船舶レーダによる桜島火山の噴煙柱モニタリング－2018 年の観測結果－. 京都大学防災研究所年報, 63-B, 136-148.

1*

Yanase, W., U. Shimada and N. Takamura, 2020: Large-scale conditions for- 234 -

6. 成果発表

6.1. 論文等

reintensification after the extratropical transition of tropical cyclones in thewestern North Pacific Ocean. Journal of Climate, 33, 10039-10053,
doi:10.1175/jcli-d-20-0013.1.
島村哲也

1

松本恵子, 下司信夫, 島村哲也, 岩橋くるみ, 2020: 火山灰カタログ 2：草津白根山（本白根山）2018 年噴火噴出物; 御嶽山 2014 年噴火噴出物; 雲仙岳（普賢岳）1990
年～1995 年噴火噴出物; 三宅島 2000 年噴火噴出物. 産総研地質調査総合センター
研究資料集, 697, 1-29.

小司禎教

1

Seko, H., and Y., Shoji, 2020: Impact of Data Assimilation of Shipborne GNSS Data
on Rainfall Forecast (Part 2). CAS/JSC WGNE WGNE Research Activities inEarth System Modelling, 50, 1-19-20.

2*Masahiro Momoi, Rei Kudo, Kazuma Aoki, Tatsuhiro Mori, Kazuhiko Miura,
Hiroshi Okamoto, Hitoshi Irie, Yoshinori Shoji, Akihiro Uchiyama, Osamu
Ijima, Matsumi Takano, and Teruyuki Nakajima, 2020: Development of on-site
self-calibration and retrieval methods for sky-radiometer observations ofprecipitable water vapor. Atmospheric Measurement Techniques, 13,2635-2658.

3*酒井 哲, 吉田 智, 永井 智広, 小司禎教, 2020: 豪雨予測に向けた水蒸気ライダーの開発と観測データを用いた研究. レーザー研究, 48, 595-598.

新堀敏基

1

新堀敏基, 石井憲介, 2021: 気象庁移流拡散モデル設計書. 気象研究所技術報告, 84,
doi:10.11483/mritechrepo.84.

鈴木修

1山内洋, 佐藤英一, 鈴木修, 2020: 竜巻観測技術の展望. 気象研究ノート「竜巻を識る」,
243, 123-128.

2

鈴木修, 2020: 日本の竜巻. 気象研究ノート, 第 243 号, 33-41.

3鈴木修,佐々浩司,宮城弘守, 2020: 写真測量による竜巻の大きさ，強度の評価. 気象研究
ノート, 第 243 号, 246-250.

4松井正宏,林泰一,鈴木修,村井博一, 2020: 竜巻のスケール. 気象研究ノート「竜巻を識る」, 第 243 号, 227-234.

1*

Hirockawa, Y., T. Kato, H. Tsuguti, and N. Seino, 2020: Identification andclassification of heavy rainfall areas and their characteristic features in Japan.
Journal of the Meteorological Society of Japan, 98, 835-857.

2*

川端康弘, 梶野瑞王, 財前祐二, 足立光司, 田中泰宙, 清野直子, 2021: 東京都心における視程の変化. 天気（論文・短報）, 68, 5-12.

1*

Sekiyama, T. and M. Kajino,, 2020: Reproducibility of surface wind and tracer
transport simulations over complex terrain using 5-, 3-, and 1-km grid models.
Journal of Applied Meteorology and Climatology, 59(5), 937–952.

2*

Takagi, M., T. Ohara, D. Goto, Y. Morino, J. Uchida, T. T. Sekiyama, S. F.
Nakayama, M. Ebihara, Y. Oura, T. Nakajima, H. Tsuruta, and Y. Moriguchi,
2020: Reassessment of early 131I inhalation doses by the Fukushima nuclear
accident based on atmospheric 137Cs and 131I/137Cs observation data andmulti-ensemble of atmospheric transport and deposition models. Journal ofEnvironmental Radioactivity, 218, 106233, doi:10.1016/j.jenvrad.2020.106233.

3

Sekiyama, T. T., 2020: Statistical Downscaling of Temperature Distributions fromthe Synoptic Scale to the Mesoscale Using Deep Convolutional Neural
Networks. arXiv.

4*Kita, K., Y. Igarashi, T. Kinase, N. Hayashi, M. Ishizuka, K. Adachi, M. Koitabashi,

清野直子

関山剛

- 235 -

6. 成果発表

6.1. 論文等

T. T. Sekiyama and Y. Onda, 2020: Rain-induced bioecological resuspension ofradiocaesium in a polluted forest in Japan. Scientific Reports, 10, 15330,
doi:10.1038/s41598-020-72029-z.

瀬古弘

高谷祐平

5

Sato, Y., T. T. Sekiyama, S. Fang, M. Kajino, A. Quérel, D. Quélo, H. Kondo, H.
Terada, M. Kadowaki, M. Takigawa, Y. Morino, J. Uchida, D. Goto, and H.
Yamazawa,, 2020: A Model intercomparison of atmospheric 137Csconcentrations from the Fukushima Daiichi Nuclear Power Plant accident,
Phase III: Simulation with an identical source term and meteorological field at
1 km resolution. Atmospheric Environment: X, 7.

6*

Kinase, T., K. Adachi, T. T. Sekiyama, M. Kajino, Y. Zaizen, and Y. Igarashi, 2020:
Temporal variations of 90Sr and 137Cs in atmospheric depositions after the
Fukushima Daiichi Nuclear Power Plant accident with long-term observations.
Scientific Reports, 10, 21627, doi:10.1038/s41598-020-78312-3.

7*

Kajino, M., K. Adachi, Y. Igarashi, Y. Satou, M. Sawada, T. T. Sekiyama, Y. Zaizen,
A. Saya, H. Tsuruta, and Y. Moriguchi, 2021: Deposition and dispersion ofradio-cesium released due to the Fukushima nuclear accident: 2. Sensitivity toaerosol microphysical properties of Cs-bearing microparticles (CsMP). Journalof Geophysical Research Atmosphere, 126, e2020jd033460,
doi:10.1029/2020JD033460.

1

Seko, H., and Y., Shoji, 2020: Impact of Data Assimilation of Shipborne GNSS Data
on Rainfall Forecast (Part 2). CAS/JSC WGNE WGNE Research Activities inEarth System Modelling, 50, 1-19-20.

2*

Okamoto, K., H. Owada, T. Fujita, M. Kazumori, M. Otsuka, H. Seko, Y. Ota, N.
Uekiyo, H. Ishimoto, M. Hayashi, H. Ishida, A. Ando, M. Takahashi, K. Bessho,
H. Yokota, 2020: Assessment of the potential impact of a hyperspectral infraredsounder on the Himawari follow-on geostationary satellite. SOLA, 16, 162-168,
doi:10.2151/sola.2020-028.

3

岡本幸三、大和田浩美、藤田匡、別所康太朗、高橋昌也、太田芳文、計盛正博、大塚道子、瀬古弘、石田春磨 、上清直隆、石元裕史 、林昌宏 、安藤昭芳、横田寛伸, 2021:
ひまわり 8・9 号後継衛星検討のためのハイパースペクトル赤外サウンダの数値
予報インパクト調査. 測候時報, 87, 99-150.

1*

Minami, A. and Y. Takaya, 2020: Enhanced Northern Hemisphere correlation skillof subseasonal predictions in the strong negative phase of the Arctic
Oscillation. Journal of Geophysical Research Atmosphere.

2*

Ose, T., Y. Takaya, S. Maeda, and T. Nakagawa, 2020: Resolution of summertime
East Asian pressure pattern and southerly monsoon wind in CMIP5
multi-model future projections. Journal of the Meteorological Society of Japan,
98, 927-944, doi:10.2151/jmsj.2020-047.

3*

Takaya, Y., I. Ishikawa, C. Kobayashi, H. Endo, and T. Ose, 2020: Enhanced
Meiyu–Baiu Rainfall in Early Summer 2020: Aftermath of the 2019 Super IOD
Event. Geophysical Research Letters, doi:10.1029/2020GL090671.

4

Kosaka, Y., Y. Takaya, Y. Kamae, 2020: The Indo-western Pacific Ocean capacitor
effect. Tropical and Extratropical AirSea Interactions Modes of Climate
Variations, 141-162, doi:10.1016/B978-0-12-818156-0.00012-5.

5*Fujii, Y., T. Ishibashi, T. Yasuda, Y. Takaya, C. Kobayashi, and I. Ishikawa, 2021:
Improvements in tropical precipitation and sea surface air temperature fields- 236 -

6. 成果発表

6.1. 論文等

in a coupled atmosphere–ocean data assimilation system. Quarterly Journal of
the Royal Meteorological Society, 147, 1317-1343, doi:10.1002/qj.3973.

高薮出

田尻拓也

6*

Iizumi, T, Y. Takaya, W. Kim, T. Nakaegawa, S. Maeda, 2021: Global within-season
yield anomaly prediction for major crops derived using seasonal forecasts oflarge-scale climate indices and regional temperature and precipitation.
Weather and Forecasting, 36, 285–299, doi:10.1175/WAF-D-20-0097.1.

7*

Takaya, Y., N. Saito, I. Ishikawa, S. Maeda, 2021: Two Tropical Routes for the
Remote Influence of the Northern Tropical Atlantic on the Indo－western
Pacific Summer Climate. Journal of Climate, 34, 1619-1634,
doi:10.1175/JCLI-D-20-0503.1.

1*

Shiogama, H., R. Ito, Y. Imada, T. Nakaegawa, N. Hirota, N. N. Ishizaki, K.
Takahashi, I. Takayabu, and S. Emori, 2020: Selecting future climate
projections of surface solar radiation in Japan. SOLA, 16, 75-79,
doi:10.2151/sola.2020-013.

2*

Miyasaka, T., H. Kawase, T. Nakaegawa, Y. Imada, and I. Takayabu, 2020: Future
projections of heavy precipitation in Kanto and associated weather patterns
using large ensemble high-resolution simulations. SOLA, 16, 125-131,
doi:10.2151/sola.2020-022.

3*

Imada, Y., H. Kawase, M. Watanabe, H. Shiogama, M. Arai, and I. Takayabu, 2020:
Advanced event attribution for heavy regional rainfall events.. npj Climate andAtmospheric Science, 3, 35.

4*

Kawase,H., M. Yamaguchi, Y. Imada,S. Hayashi, A. Murata, T. Nakaegawa, T.
Miyasaka, I. Takayabu, 2020: Enhancement of extremely heavy precipitationinduced by Typhoon Hagibis (2019) due to historical warming. SOLA, 17A,
7-13.

5*

Ito, R., T. Nakaegawa, and I. Takayabu, 2020: Comparison of regional
characteristics of land precipitation climatology projected by an MRI-AGCM
multi-cumulus scheme and multi-SST ensemble with CMIP5 multi-model
ensemble projections. Progress in Earth and Planetary Science, 7.

6*

Takayabu, T., N. N. Ishizaki, T. Nakaegawa, H. Sasaki, and W. Wongseree, 2021:
Potential of representing the diurnal cycle of local-scale precipitation innortheastern Thailand using 5-km and 2-km grid regional climate models.
Hydrological Research Letters, 15, 1-8, doi:10.3178/hrl.15.1.

1*

Orikasa, N., M. Murakami, T. Tajiri, Y. Zaizen, and T. Shinoda, 2020: In Situ
Measurements of Cloud and Aerosol Microphysical Properties in Summertime
Convective Clouds over Eastern United Arab Emirates. SOLA, 16, 185-191,
doi:10.2151/sola.2020-032.

2*

Orikasa, N., A. Saito, K. Yamashita, T. Tajiri, Y. Zaizen, T.-H. Kuo, W.-C. Kuo, andM. Murakami, 2020: Seasonal Variations of Atmospheric Aerosol Particles
Focused on Cloud Condensation Nuclei and Ice Nucleating Particles from
Ground-Based Observations in Tsukuba, Japan. SOLA, 16, 212-219,
doi:10.2151/sola.2020-036.

3佐藤陽祐, 當房豊, 山下克也, 荒木健太郎, 岩崎杉紀, 三隅良平, 大竹秀明, 茂木信宏,
齋藤泉, 川合秀明, 中島孝, 中野諭, 森樹大, 橋本明弘, 郭威鎮, 勝山祐太, 瀬戸里枝, 古藤慎之, 山田怜史, 折笠成宏, 田尻拓也, 遠藤幸生, 近藤誠, 大畑祥, 松嶋俊樹, 2020: 2019 年度「エアロゾル・雲・降水の相互作用に関する研究会」報告. 天- 237 -

6. 成果発表

6.1. 論文等

気, 67, 665-670.
田中泰宙

田中昌之

谷川朋範

1*

Oshima, N., S. Yukimoto, M. Deushi, T. Koshiro, H. Kawai, T. Y. Tanaka, and K.
Yoshida, 2020: Global and Arctic effective radiative forcing of anthropogenic
gases and aerosols in MRI-ESM2.0. Progress in Earth and Planetary Science,
7, 38, doi:10.1186/s40645-020-00348-w.

2*

川端康弘, 梶野瑞王, 財前祐二, 足立光司, 田中泰宙, 清野直子, 2021: 東京都心における視程の変化. 天気（論文・短報）, 68, 5-12.

3*

Yoshida, M., K. Yumimoto, T. M. Nagao, T. Y. Tanaka, M. Kikuchi, and H.
Murakami, 2021: Satellite retrieval of aerosol combined with assimilated
forecast. Atmospheric Chemistry and Physics, doi:10.5194/acp-21-1797-2021.

4*

青木輝夫, 的場澄人, 庭野匡思, 朽木勝幸, 谷川朋範, 竹内望, 山口悟, 本山秀明, 藤田耕史, 山崎哲秀, 飯塚芳徳, 堀雅裕, 島田利元, 植竹淳, 永塚尚子, 大沼友貴彦, 橋
本明弘, 石元裕史, 田中泰宙, 大島長, 梶野瑞王, 足立光司, 黒﨑豊, 杉山慎, 津滝俊, 東久美子, 八久保晶弘, 川上薫, 木名瀨健, 2021: SIGMA 及び関連プロジェク
トによるグリーンランド氷床上の大気・雪氷・雪氷微生物研究− ArCS II プロジェ
クトへのつながり −. 雪氷, 83(2).

1

田中昌之, 2020: 中規模繰り返し相似地震の発生状況と発生確率（2020）. 地震予知連
絡会会報, 104, 448-452.

2*

Katsumata, A., M. Tanaka, and T. Nishimiya, 2021: Rapid estimation of tsunami
earthquake magnitudes at local distance. Earth, Planets and Space, 73:72,
1-15, doi:10.1186/s40623-021-01391-7.

1*

Toyoda, T., T. Aoki, M. Niwano, T. Tanikawa, L. S. Urakawa, H. Tsujino, H. Nakano,
K. Sakamoto, N. Hirose, and G. Yamanaka, 2020: Impact of observation-basedsnow albedo parameterization on global ocean simulation results. Polar
Science, 24, 100521, doi:10.1016/j.polar.2020.100521.

2*

Toyota, T., T. Ono, T. Tanikawa, P. Wongpan, and D. Nomura, 2020: Solidification
effects of snowfall on sea-ice freeze-up: results from an onsite experimental
study. Annals of Glaciology, 1-10, doi:10.1017/aog.2020.49.

3*

Tanikawa, T., K. Kuchiki, T. Aoki, H. Ishimoto, A. Hachikubo, M. Niwano, M.
Hosaka, S. Matoba, Y. Kodama, Y. Iwata, and K. Stamnes, 2020: Effects ofsnow grain shape and mixing state of snow impurity on retrieval of snow
physical parameters from ground-based optical instrument. Journal ofGeophysical Research Atmosphere, 125, e2019JD031858,
doi:10.1029/2019JD031858.

4*

Wingspan, P., Nomura. D, T. Toyota, T. Tanikawa, K. M. Meiners, T. Ishino, T. P.
Tamura, M. Tozawa, Y. Nosaka, T. Hiratake, A. Ooki, and S. Aoki, 2020: Using
under-ice hyperspectral transmittance to determine land-fast sea-ice algal
biomass in Saroma-ko Lagoon, Hokkaido, Japan. Annals of Glaciology, 1-10,
doi:10.1017/aog.2020.69.

5木村宏海, 八久保晶弘, 谷川 朋範, 2020: 塩濃度測定と融点降下から求める積雪含水率
測定法. 北海道の雪氷, 39, 9-12.

6*

Yutaka Kurosaki, Sumito Matoba, Yoshinori Iizuka, Masashi Niwano, Tomonori
Tanikawa, Takuto Ando, Akira Hori, Atsushi Miyamoto, Shuji Fujita, andTeruo Aoki, 2020: Reconstruction of sea ice concentration in northern Baffin
Bay using deuterium excess in a coastal ice core from the northwestern
Greenland Ice Sheet. Journal of Geophysical Research Atmosphere, 125,

- 238 -

6. 成果発表

6.1. 論文等

doi:10.1029/2019JD031668.
7*青木輝夫, 的場澄人, 庭野匡思, 朽木勝幸, 谷川朋範, 竹内望, 山口悟, 本山秀明, 藤田耕史, 山崎哲秀, 飯塚芳徳, 堀雅裕, 島田利元, 植竹淳, 永塚尚子, 大沼友貴彦, 橋
本明弘, 石元裕史, 田中泰宙, 大島長, 梶野瑞王, 足立光司, 黒﨑豊, 杉山慎, 津滝俊, 東久美子, 八久保晶弘, 川上薫, 木名瀨健, 2021: SIGMA 及び関連プロジェク
トによるグリーンランド氷床上の大気・雪氷・雪氷微生物研究− ArCS II プロジェ
クトへのつながり −. 雪氷, 83(2).

8*廣瀨聡, 青木輝夫, 庭野匡思, 的場澄人, 谷川朋範, 山口悟, 山崎哲秀, 2021: 北西グリーンランド氷床上 SIGMA-A サイトで観測された雪面熱収支の特徴. 雪氷, 83(2),143-154.

溜渕功史

1*

溜渕功史, 中川茂樹, 2020: 広域多発時における自動震源を用いた地震活動評価― 平成
23 年（2011 年）東北地方太平洋沖地震への適用 ―. 験震時報（論文）, 83, 3.

辻野博之

1*

Notz, D., J. Dorr, D. A. Bailey, E. Blockley, M. Bushuk, J. B. Debernard, E. Dekker,
P. DeRepentigny, D. Docquier, N. S. Fuckar, J. C. Fyfe, A. Jahn, M. Holland, E.
Hunke, D. Iovino, N. Khosravi, F. Massonnet, G. Madec, S. O'Farrell, A. Petty,
et al., 2020: Arctic Sea Ice in CMIP6. Geophysical Research Letters, 47,e2019GL086749, doi:10.1029/2019GL086749.

2*

Toyoda, T., T. Aoki, M. Niwano, T. Tanikawa, L. S. Urakawa, H. Tsujino, H. Nakano,
K. Sakamoto, N. Hirose, and G. Yamanaka, 2020: Impact of observation-basedsnow albedo parameterization on global ocean simulation results. Polar
Science, 24, 100521, doi:10.1016/j.polar.2020.100521.

3*

Kwiatkowski, L., O. Torres, L. Bopp, K. Toyama, H. Tsujino, 他 23 名 , 2020:
Twenty-first century ocean warming, acidification, deoxygenation, andupper-ocean nutrient and primary production decline from CMIP6 model
projections. Biogeosciences, 17, 3439-3470, doi:10.5194/bg-17-3439-2020.

4

Séférian, R., S. Berthet, A. Yool, J. Palmiéri, L. Bopp, A. Tagliabue, L. Kwiatkowski,
H. Nakano, H. Tsujino, 他 19 名, 2020: Tracking improvement in simulated
marine biogeochemistry between CMIP5 and CMIP6. Current Climate Change
Reports, 6, 95-119, doi:10.1007/s40641-020-00160-0.

5*Tsujino, H., L. S. Urakawa, S. M. Griffies, G. Danabasoglu, 他 38 名, 2020:
Evaluation of global ocean–sea-ice model simulations based on theexperimental protocols of the Ocean Model Intercomparison Project phase 2(OMIP-2). Geoscientific Model Development, 13, 3643-3708,
doi:10.5194/gmd-13-3643-2020.

6*Urakawa, L. S., H. Tsujino, H. Nakano, K. Sakamoto, G. Yamanaka, and T. Toyoda,
2020: The sensitivity of a depth-coordinate model to diapycnal mixing induced
by practical implementations of the isopycnal tracer diffusion scheme. Ocean
Modelling, 154, 101693, doi:10.1016/j.ocemod.2020.101693.

7*

Nakano, H., Y. Matsumura, H. Tsujino, S. Urakawa, K. Sakamoto, T. Toyoda, G.
Yamanaka, 2021: Effects of eddies on the subduction and movement of water
masses reaching the 137◦ E section using Lagrangian particles in an
eddy-resolving OGCM. Journal of Oceanography, 77, 283-305,
doi:10.1007/s10872-020-00573-3.

8*

Nishikawa, S., T. Wakamatsu, H. Ishizaki, K. Sakamoto, Y. Tanaka, H. Tsujino, G.
Yamanaka, M. Kamachi and Y. Ishikawa, 2021: Development ofhigh-resolution future ocean regional projection datasets for coastal- 239 -

6. 成果発表

6.1. 論文等

applications in Japan. Progress in Earth and Planetary Science, 8, 7,
doi:10.1186/s40645-020-00399-z.
9*Keen, A., E. Blockley, D. Bailey, J. B. Debernard, M. Bushuk, S. Delhaye, D.
Docquier, D. Feltham, F. Massonnet, S. O'Farrell, L. Ponsoni, J. Rodriguez, D.
Schroeder, N. Swart, T. Toyoda, H. Tsujino, M. Vancoppenolle, and K. Wyser,
2021: An inter-comparison of the mass budget of the Arctic sea ice in CMIP6
models. The Cryosphere, 15, 951-982, doi:10.5194/tc-15-951-2021.

1*

大石裕介, 新出孝政, 山崎崇史, 牧野嶋文泰, 馬場俊孝, 前田拓人, 近貞直孝, 対馬弘晃,
高川智博, 2020: 南海トラフ巨大地震の 3 次元津波伝播シミュレーション. 土木学会論文集 B2（海岸工学） , 76(2), I_259-I_264, doi:10.2208/kaigan.76.2_I_259.

2*

Kubota, T., T. Saito, H. Tsushima, R. Hino, Y. Ohta, S. Suzuki, and D. Inazu, 2021:
Extracting near-field seismograms from ocean-bottom pressure gauge inside
the focal area: application to the 2011 Mw 9.1 Tohoku-Oki earthquake.
Geophysical Research Letters, 48, e2020GL091664,
doi:10.1029/2020GL091664.

1*

Ishidoya A., H. Sugawara, Y. Terao, N. Kaneyasu, N. Aoki, K. Tsuboi, and H. Kondo,
2020: O2: CO2 exchange ratio for net turbulent flux observed in anurban areaof Tokyo, Japan, and its application to anevaluation of anthropogenic CO2
emissions. Atmospheric Chemistry and Physics, 20, 5293-5308,
doi:10.5194/acp-20-5293-2020.

2*

Jagat S. H. Bisht, T. Machida, N. Chandra, K. Tsuboi, P. Patra, T. Umezawa, Y.
Niwa, Y. Sawa, S. Morimoto, T. Nakazawa, N. Saitoh, and M. Takigawa, 2021:
Seasonal variations of SF6, CO2, CH4 and N2O in the UT/LS region due toemissions, transport and chemistry. Journal of Geophysical Research
Atmosphere, 126, doi:10.1029/2020JD033541.

露木貴裕

1

気象庁気象研究所, 2020: 内陸部の地震空白域における地殻変動連続観測. 地震予知連
絡会会報, 104, 369-372.

出牛真

1*

Naoe, H., T. Matsumoto, K. Ueno, T. Maki, M. Deushi, and A. Takeuchi, 2020: Bias
correction of multi-sensor total column ozone satellite data for 1978-2017.
Journal of the Meteorological Society of Japan, 98, 353-377,
doi:10.2151/jmsj.2020-019.

2*

M. Amos et al., 2020: Projecting ozone hole recovery using an ensemble ofchemistry-climate models weighted by model performance and independence.
Atmospheric Chemistry and Physics, 20, 9961-9977.

3*

Zanis, P., Akritidis, D., Georgoulias, A. K., Allen, R. J., Bauer, S. E., Boucher, O.,
Cole, J., Johnson, B., Deushi, M., Michou, M., Mulcahy, J., Nabat, P., Olivié, D.,
Oshima, N., Sima, A., Schulz, M., Takemura, T., and Tsigaridis, K., 2020: Fast
responses on pre-industrial climate from present-day aerosols in a CMIP6
multi-model study. Atmospheric Chemistry and Physics, 20, 8381-8404,
doi:10.5194/acp-20-8381-2020.

4*

Skeie et al. , 2020: Historical total ozone radiative forcing derived from CMIP6
simulations. npj Climate and Atmospheric Science, 3, 32,
doi:10.1038/s41612-020-00131-0.

5*Oshima, N., S. Yukimoto, M. Deushi, T. Koshiro, H. Kawai, T. Y. Tanaka, and K.
Yoshida, 2020: Global and Arctic effective radiative forcing of anthropogenic
gases and aerosols in MRI-ESM2.0. Progress in Earth and Planetary Science,

対馬弘晃

坪井一寛

- 240 -

6. 成果発表

6.1. 論文等

7, 38, doi:10.1186/s40645-020-00348-w.
6*

Allen, R. J., S. Turnock, P. Nabat, P. Neubauer, U. Lohmann, D. Olivié, N. Oshima,
et al., 2020: Climate and air quality impacts due to mitigation of non-methanenear-term climate forcers. Atmospheric Chemistry and Physics, 20, 9641-9663,
doi:10.5194/acp-20-9641-2020.

7*Morgenstern et al., 2020: Reappraisal of the climate impacts of ozone‐depleting
substances. Geophysical Research Letters, 47, e2020GL088295,
doi:10.1029/2020GL088295.

8*

Y.H. Zhao et al., 2020: On the role of trend and variability of hydroxyl radical (OH)in the global methane budget. Atmospheric Chemistry and Physics, 20,
13011-13022.

9*

Turnock, S. T., R. J. Allen, M. Andrews, S. E. Bauer, M. Deushi, L. Emmons, P.
Good, L. Horowitz, J. G. John, M. Michou, P. Nabat, V. Naik, D. Neubauer, F.
M. O'Connor, D. Olivié, N.Oshima, M. Schulz, A. Sellar, S. Shim, T. Takemura,
S. Tilmes, et al., 2020: Historical and future changes in air pollutants from
CMIP6 models. Atmospheric Chemistry and Physics, 20, 14547-14579,
doi:10.5194/acp-20-14547-2020.

10* Archibald et al., 2020: Tropospheric Ozone Assessment Report: A critical review ofchanges in the tropospheric ozone burden and budget from 1850 to 2100.
Elementa: Science of the Anthropocene, 8, 1.
11* Thornhill, G. D., W. J. Collins, R. J. Kramer, D. Olivié, R. B. Skeie, F. M. O'Connor,
N. L. Abraham, R. Checa-Garcia, S. E. Bauer, M. Deushi, L. K. Emmons, P. M.
Forster, L. W. Horowitz, B. Johnson, J. Keeble, J.-F. Lamarque, M. Michou, etal., 2021: Effective radiative forcing from emissions of reactive gases andaerosols – a multi-model comparison. Atmospheric Chemistry and Physics, 21,853-874.
12* Allen, R. J., L. W. Horowitz, V. Naik, N. Oshima, F. M. O'Connor, S. Turnock, S.
Shim, P. Le Sager, T. van Noije, K. Tsigaridis, S. E. Bauer, L. T. Sentman, J. G.
John, C. Broderick, M. Deushi, G. A. Folberth, S. Fujimori, and W. J. Collins,
2021: Significant climate benefits from near-term climate forcer mitigation inspite of aerosol reductions. Environmental Research Letters, 16, 034010.
13* P. T. Griffiths, L. T. Murray, G. Zeng, Y. M. Shin, N. L. Abraham, A. T. Archibald, M.
Deushi, L. K. Emmons, I. Galbally, B. Hassler, L. W. Horowitz, J. Keeble, J.
Liu, O. Moeini, V. Naik, F. M. O' Conner, N. Oshima et al., 2021: Troposphericozone in CMIP6 Simulations. Atmospheric Chemistry and Physics, 21,4187-4218.
14* Garfinkel et al., 2021: Influence of ENSO on entry stratospheric water vapor in
coupled chemistry-ocean CCMI and CMIP6 models. Atmospheric Chemistry
and Physics, 21, 3725-3740.
15* Keeble et al., 2021: Evaluating stratospheric ozone and water vapor changes in
CMIP6 models from 1850-2100. Atmospheric Chemistry and Physics, 21,5015-5061.
16* Derwent et al., 2021: Intercomparison of the representations of the atmosphericchemistry of pre-industrial methane and ozone in earth system and otherglobal chemistry-transport models. Atmospheric Environment, 248, 118248.
17* DeLang et al., 2021: Mapping yearly fine resolution global surface ozone through the- 241 -

6. 成果発表

6.1. 論文等

Bayesian Maximum Entropy data fusion of observations and model output for
1990–2017. Environmental Science & Technology.
土井恵治

1*

Kamaya, N., M. Hoshiba, A. Katsumata and K. Doi , 2021: Continuity of Earthquake
and Tsunami Monitoring by Japan Meteorological Agency under Critical
Conditions. Seismological Research Letters, 92, 17-25, doi:10.1785/0220200259.

遠山勝也

1*

Masao Ishii, Keith B. Rodgers, Hisayuki Y. Inoue, Katsuya Toyama, Daisuke
Sasano, Naohiro Kosugi, Hisashi Ono, Kazutaka Enyo, Toshiya Nakano,Daniele Iudicone, Bruno Blanke, Olivier Aumont, and Richard A. Feely, 2020:
Ocean Acidification From Below in the Tropical Pacific. Global Biogeochemical
Cycles, 34, e2019GB006368.

2*

Kwiatkowski, L., O. Torres, L. Bopp, K. Toyama, H. Tsujino, 他 23 名 , 2020:
Twenty-first century ocean warming, acidification, deoxygenation, andupper-ocean nutrient and primary production decline from CMIP6 model
projections. Biogeosciences, 17, 3439-3470, doi:10.5194/bg-17-3439-2020.

3*

Rodgers, K. B., S. Schlunegger, R. D. Slater, M. Ishii, T. L. Frölicher, K. Toyama, Y.
Plancherel, O. Aumont, and A. J. Fassbender, 2020: Reemergence of
Anthropogenic Carbon Into the Ocean's Mixed Layer Strongly Amplifies
Transient Climate Sensitivity. Geophysical Research Letters, 47,
e2020GL089275, doi:10.1029/2020GL089275.

4*

Rodgers, K. B., M. Ishii, T. L. Frölicher, S. Schlunegger, O. Aumont, K. Toyama, andR. D. Slater, 2020: Coupling of Surface Ocean Heat and Carbon Perturbations
over the Subtropical Cells under Twenty-First Century Climate Change.
Journal of Climate, 33, 10321-10338, doi:10.1175/JCLI-D-19-1022.1.

1*

Notz, D., J. Dorr, D. A. Bailey, E. Blockley, M. Bushuk, J. B. Debernard, E. Dekker,
P. DeRepentigny, D. Docquier, N. S. Fuckar, J. C. Fyfe, A. Jahn, M. Holland, E.
Hunke, D. Iovino, N. Khosravi, F. Massonnet, G. Madec, S. O'Farrell, A. Petty,
et al., 2020: Arctic Sea Ice in CMIP6. Geophysical Research Letters, 47,e2019GL086749, doi:10.1029/2019GL086749.

2*

Toyoda, T., T. Aoki, M. Niwano, T. Tanikawa, L. S. Urakawa, H. Tsujino, H. Nakano,
K. Sakamoto, N. Hirose, and G. Yamanaka, 2020: Impact of observation-basedsnow albedo parameterization on global ocean simulation results. Polar
Science, 24, 100521, doi:10.1016/j.polar.2020.100521.

3

Mugo, R., S.-I. Saitoh, H. Igarashi, T. Toyoda, S. Masuda, T. Awaji, and Y. Ishikawa,
2020: Identification of skipjack tuna (Katsuwonus pelamis) pelagic hotspots
applying a satellite remote sensing-driven analysis of ecological niche factors: A
short-term run. PLOS ONE, 15, e0237742, doi:10.1371/journal.pone.0237742.

4*

Urakawa, L. S., H. Tsujino, H. Nakano, K. Sakamoto, G. Yamanaka, and T. Toyoda,
2020: The sensitivity of a depth-coordinate model to diapycnal mixing induced
by practical implementations of the isopycnal tracer diffusion scheme. Ocean
Modelling, 154, 101693, doi:10.1016/j.ocemod.2020.101693.

5*

Naohiro Kosugi, Nariaki Hirose, Takahiro Toyoda and Masao Ishii, 2020: Rapid
freshening of Japan Sea Intermediate Water in the 2010s. Journal of
Oceanography, 76, doi:10.1007/s10872-020-00570-6.

6*

Nakano, H., Y. Matsumura, H. Tsujino, S. Urakawa, K. Sakamoto, T. Toyoda, G.
Yamanaka, 2021: Effects of eddies on the subduction and movement of water
masses reaching the 137◦ E section using Lagrangian particles in an豊田隆寛- 242 -

6. 成果発表

6.1. 論文等

eddy-resolving OGCM. Journal of Oceanography, 77, 283-305,
doi:10.1007/s10872-020-00573-3.

直江寛明

永井智広

仲江川敏之

7*

Keen, A., E. Blockley, D. Bailey, J. B. Debernard, M. Bushuk, S. Delhaye, D.
Docquier, D. Feltham, F. Massonnet, S. O'Farrell, L. Ponsoni, J. Rodriguez, D.
Schroeder, N. Swart, T. Toyoda, H. Tsujino, M. Vancoppenolle, and K. Wyser,
2021: An inter-comparison of the mass budget of the Arctic sea ice in CMIP6
models. The Cryosphere, 15, 951-982, doi:10.5194/tc-15-951-2021.

1*

Naoe, H., T. Matsumoto, K. Ueno, T. Maki, M. Deushi, and A. Takeuchi, 2020: Bias
correction of multi-sensor total column ozone satellite data for 1978-2017.
Journal of the Meteorological Society of Japan, 98, 353-377,
doi:10.2151/jmsj.2020-019.

2*Holt, L.A., H. Naoe, K. Yoshida, S. Yukimoto et al., 2020: An evaluation of tropicalwaves and wave forcing of the QBO in the QBOi models. Quarterly Journal of
the Royal Meteorological Society, 1-27, doi:10.1002/qj.3827.

3*

Kataoka, T., H. Tatebe, H. Koyama, T. Mochizuki, K. Ogochi, H. Naoe, Y. Imada, H.
Shiogama, M. Kimoto, and M. Watanabe, 2020: Seasonal to Decadal
Predictions with MIROC6: Description and Basic Evaluation. Journal ofAdvances in Modeling Earth Systems, doi:10.1029/2019MS002035.

4*

Stockdale, T. N., H. Naoe, K. Yoshida, S. Yukimoto et al., 2020: Prediction of thequasi‐biennial oscillation with a multi‐model ensemble of QBO‐resolving
models. Quarterly Journal of the Royal Meteorological Society, 1-22,
doi:10.1002/qj.3919.

1*

酒井 哲, 吉田 智, 永井 智広, 小司禎教, 2020: 豪雨予測に向けた水蒸気ライダーの開発と観測データを用いた研究. レーザー研究, 48, 595-598.

2*

Fujiwara, M., T. Sakai, T. Nagai, K. Shiraishi, Y. Inai, S. Khaykin, H. Xi, T. Shibata,
M. Shiotani, and L. L. Pan, 2021: Lower-stratospheric aerosol measurements ineastward shedding vortices over Japan from the Asian summer monsoon
anticyclone during the summer of 2018. Atmospheric Chemistry and Physics,
21, 3073-3090, doi:10.5194/acp-21-3073-2021.

1*

Shiogama, H., R. Ito, Y. Imada, T. Nakaegawa, N. Hirota, N. N. Ishizaki, K.
Takahashi, I. Takayabu, and S. Emori, 2020: Selecting future climate
projections of surface solar radiation in Japan. SOLA, 16, 75-79,
doi:10.2151/sola.2020-013.

2*

Cha, E. J., T. R. Knutson, T. C. Lee, M. Ying, and T. Nakaegawa, 2020: Third
Assessment on Impacts of Climate Change on Tropical Cyclones in the
Typhoon Committee Region – Part II: Future Projections. Tropical Cyclone
Research and Review, 9, 75-86, doi:10.1016/j.tcrr.2020.04.005.

3*

Miyasaka, T., H. Kawase, T. Nakaegawa, Y. Imada, and I. Takayabu, 2020: Future
projections of heavy precipitation in Kanto and associated weather patterns
using large ensemble high-resolution simulations. SOLA, 16, 125-131,
doi:10.2151/sola.2020-022.

4*

Kawase,H., M. Yamaguchi, Y. Imada,S. Hayashi, A. Murata, T. Nakaegawa, T.
Miyasaka, I. Takayabu, 2020: Enhancement of extremely heavy precipitationinduced by Typhoon Hagibis (2019) due to historical warming. SOLA, 17A,
7-13.

5*

Kawase, H., A. Murata, K. Yamada, T. Nakaegawa, R. Ito, R. Mizuta, M. Nosaka, S.

- 243 -

6. 成果発表

6.1. 論文等

Watanabe, H. Sasaki, 2020: Regional characteristics of future changes insnowfall in Japan under RCP2.6 and RCP8.5 scenarios. SOLA, 17.
6*

Martínez M. M., T. Nakaegawa, R.Pinzón, S. Kusunoki, R. Gordón, and J. E.
Sanchez-Galan , 2020: Using a Statistical Crop Model to Predict Maize Yield by
the End-Of-Century for the Azuero Region in Panama . Atmosphere, 11, 1097,
doi:10.3390/atmos11101097.

7*

Ito, R., T. Ose, H. Endo, R. Mizuta, K. Yoshida, A. Kitoh, T. Nakaegawa, 2020:
Seasonal characteristics of future climate change over Japan and theassociated atmospheric circulation anomalies in global model experiments.
Hydrological Research Letters, 14, 130-135, doi:10.3178/hrl.14.130.

8*Ose, T., Y. Takaya, S. Maeda, and T. Nakagawa, 2020: Resolution of summertime
East Asian pressure pattern and southerly monsoon wind in CMIP5
multi-model future projections. Journal of the Meteorological Society of Japan,
98, 927-944, doi:10.2151/jmsj.2020-047.

9*

Nakaegawa, T., T. Kobashi, and H. Kamahori, 2020: Characteristics of the extreme
value statistics of annual maximum monthly precipitation in East Asia
calculated by an earth system model of intermediate complexity. Atmosphere,
11, 1273, doi:10.3390/atmos11121273.

10Tinumbang, A.F.A, K. Yorozu, Y. Tachikawa, Y. Ichikawa, H. Sasaki, T.
Nakaegawa, 2020: Impacts of model structures and soil parameters on runoff
characteristics in land surface models . 土木学会論文集(水工学), 76.

11* Ito, R., T. Nakaegawa, and I. Takayabu, 2020: Comparison of regional
characteristics of land precipitation climatology projected by an MRI-AGCM
multi-cumulus scheme and multi-SST ensemble with CMIP5 multi-model
ensemble projections. Progress in Earth and Planetary Science, 7.
12* Iizumi, T, Y. Takaya, W. Kim, T. Nakaegawa, S. Maeda, 2021: Global within-season
yield anomaly prediction for major crops derived using seasonal forecasts oflarge-scale climate indices and regional temperature and precipitation.
Weather and Forecasting, 36, 285–299, doi:10.1175/WAF-D-20-0097.1.
13* Takayabu, T., N. N. Ishizaki, T. Nakaegawa, H. Sasaki, and W. Wongseree, 2021:
Potential of representing the diurnal cycle of local-scale precipitation innortheastern Thailand using 5-km and 2-km grid regional climate models.
Hydrological Research Letters, 15, 1-8, doi:10.3178/hrl.15.1.
中川雅之

1

Wada, A., H. Yoshimura, and M. Nakagawa, 2020: The effect of the cloud-water
conversion rate in the cumulus parameterization on the simulation of Typhoon
Lionrock (2016). Research Activities in Earth System Modelling, 50, 9-09.

長澤亮二

1

YONEHARA Hitoshi, MATSUKAWA Chihiro, NABETANI Takashi, KANEHAMA
Takafumi, TOKUHIRO Takayuki, YAMADA Kazutaka,NAGASAWA Ryoji,
ADACHI Yukimasa,andSEKIGUCHI Ryouhei, 2020: Upgrade of JMA’s
Operational Global Model. CAS/JSC WGNE WGNE Research Activities inEarth System Modelling, 50, 6-11-12.

中野英之

1*

Toyoda, T., T. Aoki, M. Niwano, T. Tanikawa, L. S. Urakawa, H. Tsujino, H. Nakano,
K. Sakamoto, N. Hirose, and G. Yamanaka, 2020: Impact of observation-basedsnow albedo parameterization on global ocean simulation results. Polar
Science, 24, 100521, doi:10.1016/j.polar.2020.100521.

2*

Masuda, Y., Y. Yamanaka, T. Hirata, H. Nakano, T. Kohyama, 2020: Inhibition of- 244 -

6. 成果発表

6.1. 論文等

competitive exclusion due to phytoplankton dispersion: a contribution forsolving Hutchinson's paradox. Ecological Modelling, 430,
doi:10.1016/j.ecolmodel.2020.109089.

西宮隆仁

庭野匡思

3

Séférian, R., S. Berthet, A. Yool, J. Palmiéri, L. Bopp, A. Tagliabue, L. Kwiatkowski,
H. Nakano, H. Tsujino, 他 19 名, 2020: Tracking improvement in simulated
marine biogeochemistry between CMIP5 and CMIP6. Current Climate Change
Reports, 6, 95-119, doi:10.1007/s40641-020-00160-0.

4*Urakawa, L. S., H. Tsujino, H. Nakano, K. Sakamoto, G. Yamanaka, and T. Toyoda,
2020: The sensitivity of a depth-coordinate model to diapycnal mixing induced
by practical implementations of the isopycnal tracer diffusion scheme. Ocean
Modelling, 154, 101693, doi:10.1016/j.ocemod.2020.101693.

5*

Nakano, H., Y. Matsumura, H. Tsujino, S. Urakawa, K. Sakamoto, T. Toyoda, G.
Yamanaka, 2021: Effects of eddies on the subduction and movement of water
masses reaching the 137◦ E section using Lagrangian particles in an
eddy-resolving OGCM. Journal of Oceanography, 77, 283-305,
doi:10.1007/s10872-020-00573-3.

1*

馬塲久紀, 中尾凪佐, 西宮隆仁, 篠原雅尚, 阿部信太郎, 鶴我佳代子, 2021: 海底地震計
記録に捉えられた台風 24 号の通過に伴う駿河湾北部の混濁流. 地震, 第 73 巻,
197-207, doi:10.4294/zisin.2020-7.

2*

Katsumata, A., M. Tanaka, and T. Nishimiya, 2021: Rapid estimation of tsunami
earthquake magnitudes at local distance. Earth, Planets and Space, 73:72,
1-15, doi:10.1186/s40623-021-01391-7.

1*

Toyoda, T., T. Aoki, M. Niwano, T. Tanikawa, L. S. Urakawa, H. Tsujino, H. Nakano,
K. Sakamoto, N. Hirose, and G. Yamanaka, 2020: Impact of observation-basedsnow albedo parameterization on global ocean simulation results. Polar
Science, 24, 100521, doi:10.1016/j.polar.2020.100521.

2*

Onuma, Y., Takeuchi, N., Tanaka, S., Nagatsuka, N., Niwano, M., and Aoki, T.,
2020: Physically based model of the contribution of red snow algal cells to
temporal changes in albedo in northwest Greenland. The Cryosphere, 14,
2087-2101, doi:10.5194/tc-14-2087-2020.

3

Hashimoto, A., M. Niwano, H. Fujinami, A. Sakai, and K. Fujita, 2020: Numericalsimulation of the seasonal precipitation amount over the Himalayan mountainregion using the JMA-NHM. CAS/JSC WGNE Research Activities in
Atmospheric and Oceanic Modelling, 50, 5-07.

4*

Tanikawa, T., K. Kuchiki, T. Aoki, H. Ishimoto, A. Hachikubo, M. Niwano, M.
Hosaka, S. Matoba, Y. Kodama, Y. Iwata, and K. Stamnes, 2020: Effects ofsnow grain shape and mixing state of snow impurity on retrieval of snow
physical parameters from ground-based optical instrument. Journal ofGeophysical Research Atmosphere, 125, e2019JD031858,
doi:10.1029/2019JD031858.

5*

Vandecrux, B., Fausto, R. S., van As, D., Colgan, W., Langen, P. L., Haubner, K.,
Ingeman-Nielsen, T., Heilig, A., Stevens, C. M., MacFerrin, M., Niwano, M.,
Steffen, K., Box, J. E., 2020: Firn cold content evolution at nine sites on theGreenland ice sheet between 1998 and 2017. Journal of Glaciology,
doi:10.1017/jog.2020.30.

6*

Yutaka Kurosaki, Sumito Matoba, Yoshinori Iizuka, Masashi Niwano, Tomonori- 245 -

6. 成果発表

6.1. 論文等

Tanikawa, Takuto Ando, Akira Hori, Atsushi Miyamoto, Shuji Fujita, andTeruo Aoki, 2020: Reconstruction of sea ice concentration in northern Baffin
Bay using deuterium excess in a coastal ice core from the northwestern
Greenland Ice Sheet. Journal of Geophysical Research Atmosphere, 125,
doi:10.1029/2019JD031668.
7*

Vandecrux, B. et al. , 2020: The firn meltwater Retention Model Intercomparison
Project (RetMIP): evaluation of nine firn models at four weather station sites on
the Greenland ice sheet. The Cryosphere, 14, 3785-3810,
doi:10.5194/tc-14-3785-2020.

8*

Fettweis, X. et al. , 2020: GrSMBMIP: intercomparison of the modelled 1980–2012
surface mass balance over the Greenland Ice Sheet. The Cryosphere, 14,3935-3958, doi:10.5194/tc-14-3935-2020.

9

Niwano, M., Yamaguchi, S., Yamasaki, T., and Aoki. T., 2020: Near-surface snow
physics data from a dog-sledge traverse expedition in the northwest Greenland
ice sheet during 2018 spring. Polar Data Journal, 4, 133-144,
doi:10.20575/00000019.

10* Menard, C. B. et al., 2021: Scientific and human errors in a snow modelintercomparison. Bulletin of the American Meteorological Society, E61–E79,
doi:10.1175/BAMS-D-19-0329.1.
11* Sugiyama, S. et al. , 2021: Rapidly changing glaciers, ocean and coastal
environments, and their impact on human society in the Qaanaaq region,
northwestern Greenland. Polar Science, doi:10.1016/j.polar.2020.100632.
12* 庭野匡思, 青木輝夫, 橋本明弘, 大島 長, 梶野瑞王, 大沼友貴彦, 藤田耕史, 山口 悟,
島田利元, 竹内 望, 津滝 俊, 本山秀明, 石井正好, 杉山 慎, 平沢尚彦, 阿部彩子,
2021: 氷床表面質量収支の実態とそのモデリングの試み：2020 年夏最新版. 雪氷,
83, 27-50.
13* 青木輝夫, 的場澄人, 庭野匡思, 朽木勝幸, 谷川朋範, 竹内望, 山口悟, 本山秀明, 藤田耕史, 山崎哲秀, 飯塚芳徳, 堀雅裕, 島田利元, 植竹淳, 永塚尚子, 大沼友貴彦, 橋
本明弘, 石元裕史, 田中泰宙, 大島長, 梶野瑞王, 足立光司, 黒﨑豊, 杉山慎, 津滝俊, 東久美子, 八久保晶弘, 川上薫, 木名瀨健, 2021: SIGMA 及び関連プロジェク
トによるグリーンランド氷床上の大気・雪氷・雪氷微生物研究− ArCS II プロジェ
クトへのつながり −. 雪氷, 83(2).
14

庭野匡思, 2021: 新刊紹介「サイエンス・パレット 037 南極と北極―地球温暖化の視点から」. 雪氷, 83, 211-212.

15* 廣瀨聡, 青木輝夫, 庭野匡思, 的場澄人, 谷川朋範, 山口悟, 山崎哲秀, 2021: 北西グリーンランド氷床上 SIGMA-A サイトで観測された雪面熱収支の特徴. 雪氷, 83(2),143-154.
野坂真也

1*

Nosaka, M., M. Ishii, H. Shiogama, R. Mizuta, A. Murata, H. Kawase, and H.
Sasaki, 2020: Scalability of future climate changes across Japan examined withlarge-ensemble simulations at +1.5 K, +2 K, and +4 K global warming levels.
Progress in Earth and Planetary Science, doi:10.1186/s40645-020-00341-3.

2*

Sheau Tieh Ngai, Hidetaka Sasaki, Akihiko Murata, Masaya Nosaka, Jing Xiang
Chung, Liew Juneng, Supari, Ester Salimun, and Fredolin Tangang, 2020:
Extreme Rainfall Projections for Malaysia at the End of 21st Century Using theHigh Resolution Non-Hydrostatic Regional Climate Model (NHRCM) . SOLA,
１６巻, 132-139.

- 246 -

6. 成果発表

橋本明弘

6.1. 論文等

3*

Kawase, H., A. Murata, K. Yamada, T. Nakaegawa, R. Ito, R. Mizuta, M. Nosaka, S.
Watanabe, H. Sasaki, 2020: Regional characteristics of future changes insnowfall in Japan under RCP2.6 and RCP8.5 scenarios. SOLA, 17.

4*

Murata, A., S. I. Watanabe, H. Sasaki, H. Kawase, and M. Nosaka, 2020: Assessing
goodness of fit to gamma distribution and estimating future projection on daily
precipitation frequency using regional climate model simulations over Japan
with and without the influence of tropical cyclones. Journal of
Hydrometeorology, 21, 2997-3010, doi:10.1175/JHM-D-20-0068.1.

1

Hashimoto, A., and S. Hayashi, 2020: Numerical simulations of the cloud andprecipitation processes during the heavy rainfall events of early July 2017 and2018 in Japan. CAS/JSC WGNE Research Activities in Atmospheric andOceanic Modelling, 50, 5-05.

2Hashimoto, A., M. Niwano, H. Fujinami, A. Sakai, and K. Fujita, 2020: Numericalsimulation of the seasonal precipitation amount over the Himalayan mountainregion using the JMA-NHM. CAS/JSC WGNE Research Activities in
Atmospheric and Oceanic Modelling, 50, 5-07.

3

Shima, S., Y. Sato, A. Hashimoto, and R. Misumi, 2020: Predicting the morphology
of ice particles in deep convection using the super-droplet method: development
and evaluation of SCALE-SDM 0.2.5-2.2.0, -2.2.1, and -2.2.2. Geoscientific
Model Development, 13, 4107-4157, doi:10.5194/gmd-13-4107-2020.

4

中井専人, 橋本明弘, 山口 悟, 本吉弘岐, 2020: 降雪・積雪系オンラインワークショップ
2020 開催報告. 雪氷, 82, 280-281.

5佐藤陽祐, 當房豊, 山下克也, 荒木健太郎, 岩崎杉紀, 三隅良平, 大竹秀明, 茂木信宏,
齋藤泉, 川合秀明, 中島孝, 中野諭, 森樹大, 橋本明弘, 郭威鎮, 勝山祐太, 瀬戸里枝, 古藤慎之, 山田怜史, 折笠成宏, 田尻拓也, 遠藤幸生, 近藤誠, 大畑祥, 松嶋俊樹, 2020: 2019 年度「エアロゾル・雲・降水の相互作用に関する研究会」報告. 天気, 67, 665-670.

6橋本明弘, 林修吾, 佐藤陽祐, 2020: 第３回雲・降水研究会報告. 天気, 67, 713-714.

7*

Fettweis, X. et al. , 2020: GrSMBMIP: intercomparison of the modelled 1980–2012
surface mass balance over the Greenland Ice Sheet. The Cryosphere, 14,3935-3958, doi:10.5194/tc-14-3935-2020.

8橋本明弘, 中井専人, 山口 悟, 本吉弘岐, 2021: 降雪・積雪系オンラインワークショップ
2020 報告. 天気, 68.

9*

高橋麗, 梶野瑞王, 津口裕茂, 林修吾, 橋本明弘, 2021: 雲凝結核が降水に与える影響―
平成 27 年 9 月関東・東北豪雨を対象として―. エアロゾル研究, 36, 55-64,
doi:10.11203/jar.36.55.

10* 庭野匡思, 青木輝夫, 橋本明弘, 大島 長, 梶野瑞王, 大沼友貴彦, 藤田耕史, 山口 悟,
島田利元, 竹内 望, 津滝 俊, 本山秀明, 石井正好, 杉山 慎, 平沢尚彦, 阿部彩子,
2021: 氷床表面質量収支の実態とそのモデリングの試み：2020 年夏最新版. 雪氷,
83, 27-50.
11* 青木輝夫, 的場澄人, 庭野匡思, 朽木勝幸, 谷川朋範, 竹内望, 山口悟, 本山秀明, 藤田耕史, 山崎哲秀, 飯塚芳徳, 堀雅裕, 島田利元, 植竹淳, 永塚尚子, 大沼友貴彦, 橋
本明弘, 石元裕史, 田中泰宙, 大島長, 梶野瑞王, 足立光司, 黒﨑豊, 杉山慎, 津滝俊, 東久美子, 八久保晶弘, 川上薫, 木名瀨健, 2021: SIGMA 及び関連プロジェク
トによるグリーンランド氷床上の大気・雪氷・雪氷微生物研究− ArCS II プロジェ
クトへのつながり −. 雪氷, 83(2).

- 247 -

6. 成果発表

6.1. 論文等

1

Hashimoto, A., and S. Hayashi, 2020: Numerical simulations of the cloud andprecipitation processes during the heavy rainfall events of early July 2017 and2018 in Japan. CAS/JSC WGNE Research Activities in Atmospheric andOceanic Modelling, 50, 5-05.

2*

Kawase,H., M. Yamaguchi, Y. Imada,S. Hayashi, A. Murata, T. Nakaegawa, T.
Miyasaka, I. Takayabu, 2020: Enhancement of extremely heavy precipitationinduced by Typhoon Hagibis (2019) due to historical warming. SOLA, 17A,
7-13.

3

橋本明弘, 林修吾, 佐藤陽祐, 2020: 第３回雲・降水研究会報告. 天気, 67, 713-714.

4*

Hayashi, S., A. Umehara, N. Nagumo, and T. Ushio, 2021: The relationship between
lightning flash rate and ice-related volume derived from dual-polarization
radar. Atmospheric Research, 248, 105166.

5*

Junshi Ito, Hiroshige Tsuguchi, Syugo Hayashi, and Hiroshi Niino, 2021: Idealized
High-Resolution Simulations of a Back-Building Convective System that
Causes Torrential Rain. Journal of the Atmospheric Sciences, 78, 117-132.

6*

高橋麗, 梶野瑞王, 津口裕茂, 林修吾, 橋本明弘, 2021: 雲凝結核が降水に与える影響―
平成 27 年 9 月関東・東北豪雨を対象として―. エアロゾル研究, 36, 55-64,
doi:10.11203/jar.36.55.

林昌宏

1*

岡本幸三、大和田浩美、藤田匡、別所康太朗、高橋昌也、太田芳文、計盛正博、大塚道子、瀬古弘、石田春磨 、上清直隆、石元裕史 、林昌宏 、安藤昭芳、横田寛伸, 2021:
ひまわり 8・9 号後継衛星検討のためのハイパースペクトル赤外サウンダの数値
予報インパクト調査. 測候時報, 87, 99-150.

原田やよい

1*

Harada, Y., H. Endo, and K. Takemura, 2020: Characteristics of Large-Scale
Atmospheric Fields during Heavy Rainfall Events in Western Japan:
Comparison with an Extreme Event in Early July 2018. Journal of the
Meteorological Society of Japan, 98, 1207-1229.

廣川康隆

1*

Hirockawa, Y., T. Kato, H. Tsuguti, and N. Seino, 2020: Identification andclassification of heavy rainfall areas and their characteristic features in Japan.
Journal of the Meteorological Society of Japan, 98, 835-857.

2*

Hirockawa Y., T. Kato, K. Araki, and W Mashiko, 2020: Characteristics of an
Extreme Rainfall Event in Kyushu District, Southwestern Japan in Early July
2020. SOLA, 16, 265-270.

3*

Araki, K., T. Kato, Y. Hirockawa, and W. Mashiko, 2021: Characteristics ofAtmospheric Environments of Quasi-Stationary Convective Bands in Kyushu,
Japan during the July 2020 Heavy Rainfall Event. SOLA, 17, 8-15.

4廣川康隆，加藤輝之, 2021: 集中豪雨をもたらす線状降水帯. ながれ, 40, 3-8.

1*

Toyoda, T., T. Aoki, M. Niwano, T. Tanikawa, L. S. Urakawa, H. Tsujino, H. Nakano,
K. Sakamoto, N. Hirose, and G. Yamanaka, 2020: Impact of observation-basedsnow albedo parameterization on global ocean simulation results. Polar
Science, 24, 100521, doi:10.1016/j.polar.2020.100521.

2

碓氷典久, 広瀬成章, 2020: 高解像度海洋モデル・データ同化システムを用いた黒潮流路
変動研究. 月刊海洋, 52, 339-345.

3*

Naohiro Kosugi, Nariaki Hirose, Takahiro Toyoda and Masao Ishii, 2020: Rapid
freshening of Japan Sea Intermediate Water in the 2010s. Journal of
Oceanography, 76, doi:10.1007/s10872-020-00570-6.

林修吾

広瀬成章

- 248 -

6. 成果発表

藤井陽介

藤田匡

保坂征宏

干場充之

6.1. 論文等

1

川畑拓矢 上野玄太 中野慎也 藤井陽介 三好建正 小守信正 増田周平 眞木貴史 土居知
将 野村俊一 雨宮新 山崎哲 露木義, 2020: 第 10 回データ同化ワークショップの報告. 天気, 67, 455.

2*

Niwa, Y., and Y. Fujii, 2020: A conjugate BFGS method for accurate estimation of aposterior error covariance matrix in a linear inverse problem. Quarterly
Journal of the Royal Meteorological Society, 146, 3118-3143,
doi:10.1002/qj.3838.

3*

伊藤耕介, 藤井陽介, 2020: 逆問題としての 4 次元データ同化. ながれ, 39, 167-179.

4*

Kobayashi, C., Y. Fujii, I. Ishikawa, 2021: Intraseasonal SST-Precipitation
Relationship in a coupled reanalysis experiment using the MRI coupledatmosphere-ocean data assimilation system. Climate Dynamics,
doi:10.1007/s00382-020-05592-w.

5*

Fujii, Y., T. Ishibashi, T. Yasuda, Y. Takaya, C. Kobayashi, and I. Ishikawa, 2021:
Improvements in tropical precipitation and sea surface air temperature fields
in a coupled atmosphere–ocean data assimilation system. Quarterly Journal of
the Royal Meteorological Society, 147, 1317-1343, doi:10.1002/qj.3973.

1*

Okamoto, K., H. Owada, T. Fujita, M. Kazumori, M. Otsuka, H. Seko, Y. Ota, N.
Uekiyo, H. Ishimoto, M. Hayashi, H. Ishida, A. Ando, M. Takahashi, K. Bessho,
H. Yokota, 2020: Assessment of the potential impact of a hyperspectral infraredsounder on the Himawari follow-on geostationary satellite. SOLA, 16, 162-168,
doi:10.2151/sola.2020-028.

2

岡本幸三、大和田浩美、藤田匡、別所康太朗、高橋昌也、太田芳文、計盛正博、大塚道子、瀬古弘、石田春磨 、上清直隆、石元裕史 、林昌宏 、安藤昭芳、横田寛伸, 2021:
ひまわり 8・9 号後継衛星検討のためのハイパースペクトル赤外サウンダの数値
予報インパクト調査. 測候時報, 87, 99-150.

1

Saito, K., K. Watanabe, S. Haginoya, K. Takeda, T. Sueyoshi, T. Hirota, M.
Mizoguchi, K. Harada, H. Hosaka, M. Kimura, H. Yabuki,, 2020: Database forground temperature and freezing depth in Japan.. Polar Data Journal, 4, 83-96,
doi:10.20575/00000016.

2*

Tanikawa, T., K. Kuchiki, T. Aoki, H. Ishimoto, A. Hachikubo, M. Niwano, M.
Hosaka, S. Matoba, Y. Kodama, Y. Iwata, and K. Stamnes, 2020: Effects ofsnow grain shape and mixing state of snow impurity on retrieval of snow
physical parameters from ground-based optical instrument. Journal ofGeophysical Research Atmosphere, 125, e2019JD031858,
doi:10.1029/2019JD031858.

1*

M. Hoshiba, 2020: Too-late warnings by estimating Mw: Earthquake early warningin the near-fault region. Bulletin of the Seismological Society of America, 110,1276-1288, doi:10.1785/0120190306.

2*

Minson, S., J. Saunders, J. Bunn, E. Cochran, A. Baltay, D. Kilb, M. Hoshiba, and Y.
Kodera, 2020: Real-Time Performance of the PLUM Earthquake Early
Warning Method during the 2019 M6.4 and 7.1 Ridgecrest, California,
Earthquakes. Bulletin of the Seismological Society of America, 110(4),1887-1903, doi:10.1785/0120200021.

3*

Kilb, D., J. Bunn, J. Saunders, E. Cochran, S. Minson, A. Baltay, C. O'Rourke, M.
Hoshiba and Y. Kodera, 2020: THE PLUM EARTHQUAKE EARLYWARNING ALGORITHM: A RETROSPECTIVE CASE STUDY OF WEST

- 249 -

6. 成果発表

6.1. 論文等

COAST, USA, DATA. Journal of Geophysical Research Solid Earth, 126,e2020JB021053, doi:10.1029/2020JB021053.
4*

Kamaya, N., M. Hoshiba, A. Katsumata and K. Doi , 2021: Continuity of Earthquake
and Tsunami Monitoring by Japan Meteorological Agency under Critical
Conditions. Seismological Research Letters, 92, 17-25, doi:10.1785/0220200259.

1*

Duc, L., K. Saito and D. Hotta, 2020: An explanation for the diagonally predominant
property of the positive symmetric ensemble transform matrix.. Journal of the
Meteorological Society of Japan, 98, 455-462, doi:10.2151/jmsj.2020-022.

2*

Le DUC, Kazuo SAITO, Daisuke HOTTA, 2020: Analysis and design of covarianceinflation methods using inflation functions. Part 1: Theoretical framework.
Quarterly Journal of the Royal Meteorological Society, 146, 3638-3660,
doi:10.1002/qj.3864.

3

筆保弘徳、山崎哲、中村哲、安成哲平、吉田龍二、釜江陽一、下瀬健一、大橋唯太、堀田大介, 2020: 氣象術語事典：全方位解析天氣預報等最尖端的氣象學知識 . 氣象術
語事典：全方位解析天氣預報等最尖端的氣象學知識 .

4*

Hotta, D., and Y. Ota, 2021: Why does EnKF suffer from analysis overconfidence? –An insight into exploiting the ever‐increasing volume of observations.
Quarterly Journal of the Royal Meteorological Society, 147, 1258-1277,
doi:10.1002/qj.3970.

眞木貴史

1*

Naoe, H., T. Matsumoto, K. Ueno, T. Maki, M. Deushi, and A. Takeuchi, 2020: Bias
correction of multi-sensor total column ozone satellite data for 1978-2017.
Journal of the Meteorological Society of Japan, 98, 353-377,
doi:10.2151/jmsj.2020-019.

益子渉

1*

Kawaguchi, M., T. Tamura, and W. Mashiko, 2020: A numerical investigation ofbuilding damage during the 6 May 2012 Tsukuba tornado using hybrid
meteorological model/engineering LES method. Journal of Wind Engineering &Industrial Aerodynamics, 204, 104254, doi:10.1016/j.jweia.2020.104254.

2*

Adachi, T., and W. Mashiko, 2020: High Temporal‐Spatial Resolution Observationof Tornadogenesis in a Shallow Supercell Associated With Typhoon Hagibis(2019) Using Phased Array Weather Radar. Geophysical Research Letters.

3

益子 渉, 2020: 2006 年台風第 13 号に伴って発生した延岡竜巻. 気象研究ノート, 243,
148-156.

4

益子 渉, 2020: 2012 年 5 月 6 日に発生したつくば竜巻. 気象研究ノート, 243, 157-165.

5*

Hirockawa Y., T. Kato, K. Araki, and W Mashiko, 2020: Characteristics of an
Extreme Rainfall Event in Kyushu District, Southwestern Japan in Early July
2020. SOLA, 16, 265-270.

6*

Araki, K., T. Kato, Y. Hirockawa, and W. Mashiko, 2021: Characteristics ofAtmospheric Environments of Quasi-Stationary Convective Bands in Kyushu,
Japan during the July 2020 Heavy Rainfall Event. SOLA, 17, 8-15.

7足立透, 益子渉, 2021: 令和元年台風第 19 号に伴って発生した市原竜巻の３次元レーダ
ー解析. 台風研究会「台風災害の実態解明と台風防災・減災に資する方策」,
2020K-10, 15-18.

1Zhang, G., H. Murakami, T. R. Knutson, R. Mizuta, and K. Yoshida, 2020: Tropical
cyclone motion in a changing climate. Science Advances, 6, eaaz7610,
doi:10.1126/sciadv.aaz7610.

堀田大介

水田亮

- 250 -

6. 成果発表

村田昭彦

6.1. 論文等

2*

Nosaka, M., M. Ishii, H. Shiogama, R. Mizuta, A. Murata, H. Kawase, and H.
Sasaki, 2020: Scalability of future climate changes across Japan examined withlarge-ensemble simulations at +1.5 K, +2 K, and +4 K global warming levels.
Progress in Earth and Planetary Science, doi:10.1186/s40645-020-00341-3.

3*Sugi, M., Y. Yamada, K. Yoshida, R. Mizuta, M. Nakano, C. Kodama, M. Satoh,2020: Future changes in the global frequency of tropical cyclone seeds. SOLA,
16, 70-74, doi:10.2151/sola.2020-012.

4*

Roberts, M. J., J. Camp, J. Seddon, P. L. Vidale, K. Hodges, B. Vannière, J. Mecking,
R. Haarsma, A. Bellucci, E. Scoccimarro, L.-P. Caron, F. Chauvin, L. Terray, S.
Valcke, M.-P. Moine, D. Putrasahan, C. D. Roberts, R. Senan, C. Zarzycki, P.
Ullrich, Y. , 2020: Projected future changes in tropical cyclones using theCMIP6 HighResMIP multimodel ensemble. Geophysical Research Letters, 47,
e2020GL088662, doi:10.1029/2020GL088662.

5*

Mizuta, R., and H. Endo, 2020: Projected changes in extreme precipitation in a
60-km AGCM large ensemble and their dependence on return periods.
Geophysical Research Letters, 47, e2019GL086855,
doi:10.1029/2019GL086855.

6*

Kawase, H., A. Murata, K. Yamada, T. Nakaegawa, R. Ito, R. Mizuta, M. Nosaka, S.
Watanabe, H. Sasaki, 2020: Regional characteristics of future changes insnowfall in Japan under RCP2.6 and RCP8.5 scenarios. SOLA, 17.

7*

Ito, R., T. Ose, H. Endo, R. Mizuta, K. Yoshida, A. Kitoh, T. Nakaegawa, 2020:
Seasonal characteristics of future climate change over Japan and theassociated atmospheric circulation anomalies in global model experiments.
Hydrological Research Letters, 14, 130-135, doi:10.3178/hrl.14.130.

8*

Kusunoki, S., and R. Mizuta, 2020: Future changes in rainy season over East Asia
projected by massive ensemble simulations with a high-resolution global
atmospheric model. Journal of the Meteorological Society of Japan, 99, 79-100,
doi:10.2151/jmsj.2021-005.

9*

Yamada, Y., C. Kodama, M. Satoh, M. Sugi, M. J. Roberts, R. Mizuta, A. T. Noda, T.
Nasuno, M. Nakano, and P. L. Vidale, 2021: Evaluation of the contribution oftropical cyclone seeds to changes in tropical cyclone frequency due to global
warming in high-resolution multi-model ensemble simulations. Progress inEarth and Planetary Science, 8, 11, doi:10.1186/s40645-020-00397-1.

1*

Nosaka, M., M. Ishii, H. Shiogama, R. Mizuta, A. Murata, H. Kawase, and H.
Sasaki, 2020: Scalability of future climate changes across Japan examined withlarge-ensemble simulations at +1.5 K, +2 K, and +4 K global warming levels.
Progress in Earth and Planetary Science, doi:10.1186/s40645-020-00341-3.

2*

Sheau Tieh Ngai, Hidetaka Sasaki, Akihiko Murata, Masaya Nosaka, Jing Xiang
Chung, Liew Juneng, Supari, Ester Salimun, and Fredolin Tangang, 2020:
Extreme Rainfall Projections for Malaysia at the End of 21st Century Using theHigh Resolution Non-Hydrostatic Regional Climate Model (NHRCM) . SOLA,
１６巻, 132-139.

3*

Kawase,H., M. Yamaguchi, Y. Imada,S. Hayashi, A. Murata, T. Nakaegawa, T.
Miyasaka, I. Takayabu, 2020: Enhancement of extremely heavy precipitationinduced by Typhoon Hagibis (2019) due to historical warming. SOLA, 17A,
7-13.

- 251 -

6. 成果発表

毛利英明

守永武史

谷口無我

柳瀬亘

山口宗彦

6.1. 論文等

4*

Kawase, H., A. Murata, K. Yamada, T. Nakaegawa, R. Ito, R. Mizuta, M. Nosaka, S.
Watanabe, H. Sasaki, 2020: Regional characteristics of future changes insnowfall in Japan under RCP2.6 and RCP8.5 scenarios. SOLA, 17.

5*

Murata, A., S. I. Watanabe, H. Sasaki, H. Kawase, and M. Nosaka, 2020: Assessing
goodness of fit to gamma distribution and estimating future projection on daily
precipitation frequency using regional climate model simulations over Japan
with and without the influence of tropical cyclones. Journal of
Hydrometeorology, 21, 2997-3010, doi:10.1175/JHM-D-20-0068.1.

1*

Mouri, H., T. Morinaga, T. Yagi, and K. Mori, 2020: Logarithmic and nonlogarithmic
scaling laws of two-point statistics in wall turbulence. Physical Review E, 101,
053103, doi:10.1103/PhysRevE.101.053103.

2

守永武史, 毛利英明, 八木俊政, 森一安, 萩野谷成徳, 2020: 境界層乱流における不安定
成層時の平均風速と風速変動. 風工学研究論文集, 26, 25.

1*

Mouri, H., T. Morinaga, T. Yagi, and K. Mori, 2020: Logarithmic and nonlogarithmic
scaling laws of two-point statistics in wall turbulence. Physical Review E, 101,
053103, doi:10.1103/PhysRevE.101.053103.

2

守永武史, 毛利英明, 八木俊政, 森一安, 萩野谷成徳, 2020: 境界層乱流における不安定
成層時の平均風速と風速変動. 風工学研究論文集, 26, 25.

1*

Yaguchi, M., 2020: Abnormal discharge of high-temperature hot spring waterobserved at the abandoned well in the Okuhida hot spring area during theearthquake swarm occurred at Gifu-Nagano district, central Japan. Journal of
Hot Spring Sciences, 70, 70-79.

2*

村松容一, 谷口無我, 2020: 山梨県増富温泉の水質形成機構. 温泉科学, 70, 124-136.

3*

Ohba, T., M. Yaguchi, U. Tsunogai, M. Ito and R. Shingubara , 2021: Behavior ofmagmatic components in fumarolic gases related to the 2018 phreatic eruption
at Ebinokogen Ioyama volcano, Kirishima Volcanic Group, Kyushu, Japan.
Earth, Planets and Space, 73, 81.

1

荒木健太郎，柳瀬亘，北畠尚子，黒良龍太, 2020: 令和元年台風第 19 号による大雨の発生環境場. 令和元年度科学研究費助成事業・特別研究促進費「令和元年台風 19 号
及び台風 21 号による広域災害に関する総合研究」報告書, 41-42.

2

荒木健太郎，柳瀬亘，北畠尚子，黒良龍太, 2020: 大雨に対する地形の影響の評価. 令和

3*Yanase, W., U. Shimada and N. Takamura, 2020: Large-scale conditions for
reintensification after the extratropical transition of tropical cyclones in thewestern North Pacific Ocean. Journal of Climate, 33, 10039-10053,
doi:10.1175/jcli-d-20-0013.1.

1*

Kawabata, Y., and M. Yamaguchi, 2020: Probability ellipse for tropical cyclone track
forecasts with multiple ensembles. Journal of the Meteorological Society ofJapan, 98, 821-833, doi:10.2151/jmsj.2020-042.

2*

Yamaguchi, M., and S. Maeda, 2020: Increase in the Number of Tropical Cyclones
Approaching Tokyo Since 1980. Journal of the Meteorological Society of Japan,
98, 775-786.

3*

Kawase,H., M. Yamaguchi, Y. Imada,S. Hayashi, A. Murata, T. Nakaegawa, T.
Miyasaka, I. Takayabu, 2020: Enhancement of extremely heavy precipitationinduced by Typhoon Hagibis (2019) due to historical warming. SOLA, 17A,

元年度科学研究費助成事業・特別研究促進費「令和元年台風 19 号及び台風 21 号
による広域災害に関する総合研究」報告書, 49-50.

- 252 -

6. 成果発表

6.1. 論文等

7-13.
4*

Liang, M., J. C. L. Chan, J. Xu, and M. Yamaguchi, 2020: Numerical Prediction of
Tropical Cyclogenesis Part I: Evaluation of Model Performance. Quarterly
Journal of the Royal Meteorological Society, 147, 1626-1641,
doi:10.1002/qj.3987.

5*

Yamaguchi, M., and S. Maeda, 2020: Slowdown of typhoon translation speeds in
mid-latitudes in September influenced by the Pacific Decadal Oscillation andglobal warming. Journal of the Meteorological Society of Japan, 98, 1321-1334.

山崎明宏

1*

Nakajima, T., M. Campanelli, H. Che, V. Estelles, H. Irie, S. Kim, J. Kim, D. Liu, T.
Nishizawa, G. Pandithurai, V. Soni, B. Thana, N. Tugjsurn, K. Aoki, S. Go, M.
Hashimoto, A. Higurashi, S. Kazadzis, P. Khatri, R. Kudo, A. Yamazaki, and 6others., 2020: An overview of and issues with sky radiometer technology and
SKYNET. Atmospheric Measurement Techniques, 13, 4195-4218.

山中吾郎

1*

Toyoda, T., T. Aoki, M. Niwano, T. Tanikawa, L. S. Urakawa, H. Tsujino, H. Nakano,
K. Sakamoto, N. Hirose, and G. Yamanaka, 2020: Impact of observation-basedsnow albedo parameterization on global ocean simulation results. Polar
Science, 24, 100521, doi:10.1016/j.polar.2020.100521.

2*

Urakawa, L. S., H. Tsujino, H. Nakano, K. Sakamoto, G. Yamanaka, and T. Toyoda,
2020: The sensitivity of a depth-coordinate model to diapycnal mixing induced
by practical implementations of the isopycnal tracer diffusion scheme. Ocean
Modelling, 154, 101693, doi:10.1016/j.ocemod.2020.101693.

3*

Nakano, H., Y. Matsumura, H. Tsujino, S. Urakawa, K. Sakamoto, T. Toyoda, G.
Yamanaka, 2021: Effects of eddies on the subduction and movement of water
masses reaching the 137◦ E section using Lagrangian particles in an
eddy-resolving OGCM. Journal of Oceanography, 77, 283-305,
doi:10.1007/s10872-020-00573-3.

4*

Nishikawa, S., T. Wakamatsu, H. Ishizaki, K. Sakamoto, Y. Tanaka, H. Tsujino, G.
Yamanaka, M. Kamachi and Y. Ishikawa, 2021: Development ofhigh-resolution future ocean regional projection datasets for coastal
applications in Japan. Progress in Earth and Planetary Science, 8, 7,
doi:10.1186/s40645-020-00399-z.

1*Holt, L.A., H. Naoe, K. Yoshida, S. Yukimoto et al., 2020: An evaluation of tropicalwaves and wave forcing of the QBO in the QBOi models. Quarterly Journal of
the Royal Meteorological Society, 1-27, doi:10.1002/qj.3827.

2

Kawai, H., T. Koshiro, and S. Yukimoto, 2020: Relationship between shortwave
radiation bias over the Southern Ocean and the ITCZ in MRI-ESM2. CAS/JSC
WGNE Research Activities in Earth System Modelling/WMO, 50, 709-710.

3

Koshiro, T., H. Kawai, and S. Yukimoto, 2020: Impact of cloud microphysics
parameter on 20th century warming simulated in MRI-CGCM3. CAS/JSC
WGNE Research Activities in Earth System Modelling, 50, 713-714.

4*

Smith, C. J. et al., 2020: Effective radiative forcing and adjustments in CMIP6
models. Atmospheric Chemistry and Physics, doi:10.5194/acp-20-9591-2020.

5*

Oshima, N., S. Yukimoto, M. Deushi, T. Koshiro, H. Kawai, T. Y. Tanaka, and K.
Yoshida, 2020: Global and Arctic effective radiative forcing of anthropogenic
gases and aerosols in MRI-ESM2.0. Progress in Earth and Planetary Science,
7, 38, doi:10.1186/s40645-020-00348-w.

行本誠史- 253 -

6. 成果発表

6.1. 論文等

6*

Stockdale, T. N., H. Naoe, K. Yoshida, S. Yukimoto et al., 2020: Prediction of thequasi‐biennial oscillation with a multi‐model ensemble of QBO‐resolving
models. Quarterly Journal of the Royal Meteorological Society, 1-22,
doi:10.1002/qj.3919.

7*

Gillett, N. P., M. Kirchmeier-Young, A. Ribes, H. Shiogama, G. Hegerl, R. Knutti, G.
Gastineau, J. G. John, L. Li, L. Nazarenko, N. Rosenbloom, Ø. Seland, T. Wu,
S. Yukimoto, and T. Ziehn, 2021: Constraining human contributions toobserved warming since the pre-industrial period.. Nature Climate Change,
doi:10.1038/s41558-020-00965-9.

8*Aizawa, T., M. Ishii, N. Oshima, S. Yukimoto, and H. Hasumi, 2021: Arctic warming
and associated sea ice reduction in the early 20th century induced by naturalforcings in MRI-ESM2.0 climate simulations and multi-model analyses.
Geophysical Research Letters, 48.

1

Zhang, G., H. Murakami, T. R. Knutson, R. Mizuta, and K. Yoshida, 2020: Tropical
cyclone motion in a changing climate. Science Advances, 6, eaaz7610,
doi:10.1126/sciadv.aaz7610.

2*

Sugi, M., Y. Yamada, K. Yoshida, R. Mizuta, M. Nakano, C. Kodama, M. Satoh,2020: Future changes in the global frequency of tropical cyclone seeds. SOLA,
16, 70-74, doi:10.2151/sola.2020-012.

3*

Holt, L.A., H. Naoe, K. Yoshida, S. Yukimoto et al., 2020: An evaluation of tropicalwaves and wave forcing of the QBO in the QBOi models. Quarterly Journal of
the Royal Meteorological Society, 1-27, doi:10.1002/qj.3827.

4*

Oshima, N., S. Yukimoto, M. Deushi, T. Koshiro, H. Kawai, T. Y. Tanaka, and K.
Yoshida, 2020: Global and Arctic effective radiative forcing of anthropogenic
gases and aerosols in MRI-ESM2.0. Progress in Earth and Planetary Science,
7, 38, doi:10.1186/s40645-020-00348-w.

5*Ito, R., T. Ose, H. Endo, R. Mizuta, K. Yoshida, A. Kitoh, T. Nakaegawa, 2020:
Seasonal characteristics of future climate change over Japan and theassociated atmospheric circulation anomalies in global model experiments.
Hydrological Research Letters, 14, 130-135, doi:10.3178/hrl.14.130.

6*

Stockdale, T. N., H. Naoe, K. Yoshida, S. Yukimoto et al., 2020: Prediction of thequasi‐biennial oscillation with a multi‐model ensemble of QBO‐resolving
models. Quarterly Journal of the Royal Meteorological Society, 1-22,
doi:10.1002/qj.3919.

7

Fudeyasu, H., K. Yoshida, and R. Yoshida, 2020: Future Changes in Western North
Pacific Tropical Cyclone Genesis Environment in High-Resolution
Large-Ensemble Simulations. Oceans, 1, 355-368, doi:10.3390/oceans1040024.

1

吉田智, 2020: 雷放電三次元標定装置の開発と観測. 日本大気電気学会誌, Vol.14, No.1,
3-10.

2*

酒井 哲, 吉田 智, 永井 智広, 小司禎教, 2020: 豪雨予測に向けた水蒸気ライダーの開発と観測データを用いた研究. レーザー研究, 48, 595-598.

吉村裕正

1

Wada, A., H. Yoshimura, and M. Nakagawa, 2020: The effect of the cloud-water
conversion rate in the cumulus parameterization on the simulation of Typhoon
Lionrock (2016). Research Activities in Earth System Modelling, 50, 9-09.

和田章義

1

Wada, A., H. Yoshimura, and M. Nakagawa, 2020: The effect of the cloud-water
conversion rate in the cumulus parameterization on the simulation of Typhoon

吉田康平

吉田智

- 254 -

6. 成果発表

6.1. 論文等

Lionrock (2016). Research Activities in Earth System Modelling, 50, 9-09.
2

Wada, A., 2020: Rainfall simulations of Typhoons Kammuri and Phanfone
landfalling in the Philippines. Research Activities in Earth System Modelling,
50, 9-11.

3

Wada, A., and K. Okamoto, 2020: Atmosphere-wave-ocean coupled-model simulationon the effect of Himawari-8 all-sky infrared radiances assimilation on the track
simulation of Typhoon Jongdari (2018). Research Activities in Earth System
Modelling, 50, 9-17.

4和田章義, 2020: 特集 近年の台風の特徴と将来予測 . 気象年鑑, 3-29.

5

Wada, A., 2020: Atmosphere-wave-ocean coupled-model simulation on Typhoon
Bualoi(2019) and formation of quasi-linear convective system around Boso
Peninsula. Research Activities in Earth System Modelling, 50, 9-07.

6

Wada, A., 2020: Sensitivity experiments on axisymmetrization of Typhoon Faxai(2019) just before landfalling in Japan simulated by atmosphere-ocean coupledmodel. Research Activities in Earth System Modelling, 50, 9-13.

7Wada, A., 2020: Atmosphere-wave-ocean coupled-model simulation on rapid
intensification of Typhoon Hagibis (2019). Research Activities in Earth System
Modelling, 50, ９-15.

8*Wada, A, H. Tomita, S. Kako, 2020: Comparison of the third-generation Japanese
ocean flux data set J-OFURO3 with numerical simulations of Typhoon Dujuan(2015) traveling south of Okinawa. Journal of Oceanography.

9*

Fukuda K., K. Yasunaga, R. Oyama, A. Wada, A. Hamada, and H. Fudeyasu, 2020:
The diurnal cycle of clouds in tropical cyclones over the western North PacificBasin. SOLA, 16, 109-114.

10* Takamura, N., and A. Wada, 2020: Unusual Characteristics of ExtratropicalTransition of Typhoons in August 2016. Journal of the Meteorological Society ofJapan, 98, 691-706.
11* Wada, A., and J. C. L. Chan, 2021: Increasing TCHP in the western North Pacificand its influence on the intensity of FAXAI and HAGIBIS in 2019. SOLA, 17A,
29-32.

渡邉俊一

12

和田章義, 2021: 2018-2019 年の台風における海洋の役割. 台風研究会「台風災害の実態解明と台風防災・減災に資する方策」, 2020K-10, 97-102.

1*

Kawase, H., A. Murata, K. Yamada, T. Nakaegawa, R. Ito, R. Mizuta, M. Nosaka, S.
Watanabe, H. Sasaki, 2020: Regional characteristics of future changes insnowfall in Japan under RCP2.6 and RCP8.5 scenarios. SOLA, 17.

2*

Murata, A., S. I. Watanabe, H. Sasaki, H. Kawase, and M. Nosaka, 2020: Assessing
goodness of fit to gamma distribution and estimating future projection on daily
precipitation frequency using regional climate model simulations over Japan
with and without the influence of tropical cyclones. Journal of
Hydrometeorology, 21, 2997-3010, doi:10.1175/JHM-D-20-0068.1.

- 255 -