Author(s) | Paper title | Country | Pages |
H.B. de Azevedo, L.G.G.Goncalves, E.Kalnay, M.Wespetal | Dynamically Weighted Hybrid Gain Data Assimilation | Brazil | 1-03 |
T. Fujita, H. Seko, T. Kawabata, Y. Ikuta, K. Sawada, D. Hotta, M. Kunii | Variational Data Assimilation with Spatial and Temporal Observation Error Correlations of Doppler Radar Radial Winds | Japan | 1-05 |
Y. Ikuta, H. Kusabiraki, K. Kawano, T. Anzai, M. Sawada, M. Ujiie, S. Nishimoto, Y. Ota, M. Narita | A New Data Assimilation System and Upgrading of Physical Processes in JMA's Meso-scale NWP System | Japan | 1-07 |
T. Kadowaki, Y. Ota, S. Yokota | Introduction of a new hybrid data assimilation system for the JMA Global Spectral Model | Japan | 1-09 |
H.C. Lee, D. Behringer, D. Kleist | A Traceable Observing System Experiment in NCEP GODAS | US | 1-11 |
H.Liu, A. Collard, J. Jung, D. Kleist | Clear-Sky Radiance (CSR) Assimilation from Geostationary Infrared Imagers at NCEP | US | 1-13 |
K.Ochi | Preliminary results of soil moisture data assimilation into JMA Global Analysis | Japan | 1-15 |
I.Okabe | Operational use of GOES-16 clear-sky radiance (CSR) data in JMA’s global NWP system | Japan | 1-17 |
H. Seko, Y. Shoji | Impact of data assimilation of shipborne GNSS data on rainfall forecast (Part 2) | Japan | 1-19 |
H. Shimizu, M. Kazumori, T. Kadowaki | Implementation of all-sky microwave radiance assimilation into JMA's global NWP system | Japan | 1-21 |
Author(s) | Paper title | Country | Pages |
O. Aldukhov, I. Chernykh | First and second-order trends of air temperature at the surface level from global radiosonde data | Russia | 2-03 |
G.Alekseev, A. Pnyushkov, A. Smirnov, A. Vyazilova, N. Glok | Influence of Atlantic inflow on freshwater content in the Arctic Ocean | Russia | 2-05 |
I. Chernykh, O. Aldukhov | Spatiotemporal distributions of global trends of humidity and temperature in low troposphere | Russia | 2-07 |
M. Li, D. Luo, I. Simmonds, A. Dai, L. Zhong, Y. Yao | The associations of winter Atlantic SST, Arctic sea ice, and East Asian surface temperature | Australia | 2-09 |
I.I. Mokhov, D.A. Smirnov | Estimates of the contribution of key natural modes and anthropogenic forcing to global surface temperature trend at different temporal horizons | Russia | 2-11 |
I.I. Mokhov, V.P. Yushkov, A.V. Timazhev, B.A. Babanov | Strong squalls in Moscow region in 2017 and 2018 | Russia | 2-13 |
I.I. Mokhov, A.G. Poroshenko | Tropical cyclones in the Western North Pacific Ocean: Changes of their total action during past decades | Russia | 2-15 |
U. Prokhorova, A. Urazgildeeva | Effect from polynyas in the Siberian Arctic seas to atmospheric transport of heat and moisture | Russia | 2-17 |
A. V. Smirnov, A. V. Muravev, D. B. Kiktev | Combining precipitation fields on the basis of radar data and mesoscale model output products in nowcasting systems of Hydrometcenter of Russia | Russia | 2-19 |
A. Vyazilova, G. Alekseev, N. Kharlanenkova, N. Glok | Impact of global warming on the Siberian rivers runoff | Russia | 2-21 |
Author(s) | Paper title | Country | Pages |
K. Araki | Numerical Simulation of Potential Impact of Aerosols on Heavy Rainfall Event Associated with Typhoon Hagibis (2019) | Japan | 4-03 |
T. Komori, S. Hirahara, R. Sekiguchi | Improved representation of convective moistening in JMA’s next-generation coupled seasonal prediction system | Japan | 4-05 |
P. Marquet, P. Bechtold | A new Estimated Inversion Strength (EIS) based on the moist-air entropy. | France | 4-07 |
C. Matsukawa, H. Yonehara, T. Kanehama | Evaluation of revised gravity wave parametrizations using statistics of first-guess departures | Japan | 4-09 |
I.I. Mokhov, A.G. Poroshenko | Relationship between intensity and duration of tropical cyclones | Russia | 4-11 |
W. Wang, L. Zhu, H.S. Kim, D. Iredell, K. Wu, B. Liu, Z. Zhang, A. Mehra, V. Tallapragada | Testing a New Horizontal Mixing-length Formulation in HMON | US | 4-13 |
W. Zheng, J. Han, J. Kain, G. Manikin, R. Sun, F. Yang, V. Tallapragada | Analysis and Mitigation of Occasional Precipitation-Type Problems in NCEP Global Forecast System | US | 4-15 |
H. Zhu, A. Protat,C. Franklin | Kurnell Storm (2015) simulations with high resolution UM | Australia | 4-17 |
Author(s) | Paper title | Country | Pages |
J. Dong, B. Liu, Z. Zhang, W. Wang, L. Zhu, C. Zhang, K. Wu, A. Hazelton, X. Zhang, A. Mehra, V. Tallapragada | Hurricane Analysis and Forecast System (HAFS) Stand-alone Regional (SAR) Model: Real-time Experiments for 2019 North Atlantic Hurricane Season | US | 5-03 |
A.Hashimoto, S. Hayashi | Numerical simulations of the cloud and precipitation processes during the heavy rainfall events of early July 2017 and 2018 in Japan | Japan | 5-05 |
A.Hashimoto, M.Niwano, H.Fujinami, A.Sakai, K.Fujita | Numerical simulation of the seasonal precipitation amount over the Himalayan mountain region using the JMA-NHM | Japan | 5-07 |
M. Kaur, A. K. Sahai, R. Phani, S. Joseph | Super-Cyclone Amphan (2020) : Global versus Regional Ensemble Prediction | India | 5-09 |
J. Wang, R. Kotamarthi,W. Chang | Convection-permitting scale simulations reduce precipitation bias over North America | USA | 5-11 |
J. McQueen, P. Lee, I. Stajner, J. Huang, H.C. Huang, L. Pan | NOAA’s National Air Quality Forecast Capability for Ozone and Fine Particulate Matter | US | 5-13 |
Author(s) | Paper title | Country | Pages |
E.Bazile, N. Azouz, A. Napoly, C. Loo | Impact of the 1D sea-ice model GELATO in the global model ARPEGE. | France | 6-03 |
Z.N. Begum | Investigations of the International Experiments, GAME and I-STEP and the Global Atmospheric Model Findings | India | 6-05 |
P. Bhattacharjee, L. Pan, B. Baker, K. Zhang, R. Montuoro, G. Grell, S. McKeen, J. McQueen | Preliminary Evaluation of NOAA’s GEFS-Aerosol Model | US | 6-07 |
I.I. Mokhov, A.V. Timazhev | Climate anomalies in the North Eurasian regions: predictability for different El-Nino conditions | Russia | 6-09 |
I.I. Mokhov | Warm and cold winters in the North Eurasian regions: Assessment of El-Niño effects | Russia | 6-11 |
N.Otsuka,R.Sekiguchi,T.Komori,T.Tanaka | Effects of stratospheric volcanic aerosols on S2S prediction skill | Japan | 6-13 |
T. Takakura, T. Komori | Two-tiered sea surface temperature approach implemented to JMA’s Global Ensemble Prediction System | Japan | 6-15 |
H.Yamaguchi, M.Ikegami, K.Ochi, Y.Ota, R.Sekiguchi, T.Takakura | Upgrade of JMA's Global Ensemble Prediction System | Japan | 6-17 |
H.Yonehara, C. Matsukawa, T. Nabetani, T. Kanehama, T.Tokuhiro, K. Yamada, R. Nagasawa, Y. Adachi, R. Sekiguchi | Upgrade of JMA’s Operational Global Model | Japan | 6-19 |
Author(s) | Paper title | Country | Pages |
R. Danielson, W. A. Perrie, M. Zhang | An update on linear regression and error correlation: Exploration of baseline climate change impacts on Arctic and North Atlantic fog | Canada | 10-03 |
J.G.Z.de Mattos, L. F. Sapucci, C. F. Bastarz, A. Frassoni, W. Santos, A. Carrasco | SCANTEC: A Community System for Evaluation of Numerical Weather and Climate Prediction Models | Brazil | 10-05 |
L. Stefanova, J. Meixner, A. Mehra, P. Bhattacharjee, R. Grumbine, B. Li, S. Moorthi, Jiande Wang, D. Worthen | Verification of the NCEP/EMC Unified Forecast System for Subseasonal to Seasonal Timescales | US | 10-07 |
W. Wang, B. Liu, Z. Zhang, L. Zhu, A. Mehra, V. Tallapragada | Ten-year Performance of HWRF Model in RI Forecasts -- A New Metric | US | 10-09 |
Z. Zhang, J. Zhang, K. Wu, G. Alaka, A. Mehra, V. Tallapragada | A Statistical Analysis of High Frequency Track and Intensity Forecasts from NOAA’s Operational Hurricane Weather Research and Forecast (HWRF) Modeling System | US | 10-11 |