TY - JOUR
T1 - NHM-Chem, the Japan meteorological agency’s regional meteorology – chemistry model
T2 - Model evaluations toward the consistent predictions of the chemical, physical, and optical properties of aerosols
AU - Kajino, Mizuo
AU - Deushi, Makoto
AU - Sekiyama, Tsuyoshi Thomas
AU - Oshima, Naga
AU - Yumimoto, Keiya
AU - Tanaka, Taichu Yasumichi
AU - Ching, Joseph
AU - Hashimoto, Akihiro
AU - Yamamoto, Tetsuya
AU - Ikegami, Masaaki
AU - Kamada, Akane
AU - Miyashita, Makoto
AU - Inomata, Yayoi
AU - Shima, Shin Ichiro
AU - Takami, Akinori
AU - Shimizu, Atsushi
AU - Hatakeyama, Shiro
N1 - Funding Information:
This work was mainly supported by the Fundamental Research Budget of MRI (C3) and the Integrated Research Program for Advancing Climate Models (TOUGOU Program) of the Ministry of Education, Culture, Sports, Science, and Technology Japan (MEXT). This work was also supported by the Environmental Research and Technology Development Fund (5-1605, S-12, and 2-1703) of the Environmental Restoration and Conservation Agency (ERCA) and by the Japanese Society for the Promotion of Sciences (JSPS) KAKENHI Grant Number JP15H02811, JP16H04051, JP16H01772, JP15K16121, JP16KK0018, JP26701004, and JP18H03363) and in part by a grant for the Global Environmental Research Coordination System, from the Ministry of Environment, Japan (MOEJ). The authors feel obliged to thank Dr. Toshi-nori AOYAGI of the JMA, Prof. Mitsuo OHIZUMI of Meteorological College, and Drs. Hiroaki NAOE, Masashi NIWANO, and Masaya NOSAKA of the MRI for their useful comments on model developments. The authors feel obliged to thank Drs. Rei KUDO and Hiroshi ISHIMOTO of the MRI, Dr. Nobuo SUGIMOTO of NIES, Prof. Hiroshi KOBAYASHI of the University of Yamanashi, Drs. Keiichi SATO and Akie YUBA of the Asia Center for Air Pollution Research, Prof. Hiroshi BANDOW of Osaka Prefecture University, Prof. Tamio TAKAMURA of Chiba University, Dr. Pradeep KHATRI of Tohoku University, Prof. Michihiro MOCHIDA of Nagoya University, Prof. Tomoki NAKAYAMA of Nagasaki University, Prof. Atsushi MATSUKI of Kanazawa University, and Mr. Shohei SUZUKI of University of Tsukuba for their useful comments on the model evaluations using observation datasets. The authors feel obliged to thank the Kagoshima Meteorological Office and Aso Volcano Disaster Prevention Council for providing the volcanic SO2 emission measurement data of Mt. Sakurajima and Mt. Aso, respectively.
Publisher Copyright:
© The Author(s) 2019.
PY - 2019
Y1 - 2019
N2 - The model performance of a regional-scale meteorology-chemistry model (NHM-Chem) has been evaluated for the consistent predictions of the chemical, physical, and optical properties of aerosols. These properties are essentially important for the accurate assessment of air quality and health hazards, contamination of land and ocean ecosystems, and regional climate changes due to aerosol-cloud-radiation interaction processes. Currently, three optional methods are available: the five-category non-equilibrium method, the three-category non-equilibrium method, and the bulk equilibrium method. These three methods are suitable for the predictions of regional climate, air quality, and operational forecasts, respectively. In this paper, the simulated aerosol chemical, physical, and optical properties and their consistency were evaluated using various observation data in East Asia. The simulated mass, size, and deposition of SO42− and NH4 + agreed well with the observations, whereas those of NO3−, sea salt, and dust needed improvement. The simulated surface mass concentration (PM10 and PM2.5) and spherical extinction coefficient agreed well with the observations. The simulated aerosol optical thickness (AOT) and dust extinction coefficient were significantly underestimated.
AB - The model performance of a regional-scale meteorology-chemistry model (NHM-Chem) has been evaluated for the consistent predictions of the chemical, physical, and optical properties of aerosols. These properties are essentially important for the accurate assessment of air quality and health hazards, contamination of land and ocean ecosystems, and regional climate changes due to aerosol-cloud-radiation interaction processes. Currently, three optional methods are available: the five-category non-equilibrium method, the three-category non-equilibrium method, and the bulk equilibrium method. These three methods are suitable for the predictions of regional climate, air quality, and operational forecasts, respectively. In this paper, the simulated aerosol chemical, physical, and optical properties and their consistency were evaluated using various observation data in East Asia. The simulated mass, size, and deposition of SO42− and NH4 + agreed well with the observations, whereas those of NO3−, sea salt, and dust needed improvement. The simulated surface mass concentration (PM10 and PM2.5) and spherical extinction coefficient agreed well with the observations. The simulated aerosol optical thickness (AOT) and dust extinction coefficient were significantly underestimated.
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U2 - 10.2151/JMSJ.2019-020
DO - 10.2151/JMSJ.2019-020
M3 - Article
AN - SCOPUS:85062050526
SN - 0026-1165
VL - 97
SP - 337
EP - 374
JO - Journal of the Meteorological Society of Japan
JF - Journal of the Meteorological Society of Japan
IS - 2
ER -