Dependence of Precipitation Scaling Patterns on Emission Scenarios for Representative Concentration Pathways
Author(s) -
Yasuhiro Ishizaki,
Hideo Shiogama,
Seita Emori,
Tokuta Yokohata,
Toru Nozawa,
Kiyoshi Takahashi,
Tomoo Ogura,
Masakazu Yoshimori,
Tatsuya Nagashima
Publication year - 2013
Publication title -
journal of climate
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 3.315
H-Index - 287
eISSN - 1520-0442
pISSN - 0894-8755
DOI - 10.1175/jcli-d-12-00540.1
Subject(s) - scaling , shortwave radiation , environmental science , shortwave , precipitation , aerosol , common spatial pattern , atmospheric sciences , climate model , climatology , evaporation , mode (computer interface) , climate change , radiation , meteorology , physics , radiative transfer , geology , mathematics , statistics , geometry , oceanography , quantum mechanics , computer science , operating system
Pattern scaling is an efficient way to generate projections of regional climate change for various emission scenarios. This approach assumes that the spatial pattern of changes per degree of global warming (scaling pattern) is the same among emission scenarios. The hypothesis was tested for the scaling pattern of precipitation by focusing on the scenario dependence of aerosol scaling patterns. The scenario dependence of aerosol scaling patterns induced the scenario dependence of the surface shortwave radiation scaling pattern. The scenario dependence of the surface shortwave radiation scaling pattern over the ocean tended to induce the scenario dependence of evaporation scaling patterns. The scenario dependence of evaporation scaling patterns led to the scenario dependence of precipitation scaling patterns locally and downwind. Contrariwise, when the scenario dependence of aerosol scaling patterns occurred over land, the scenario dependence of surface shortwave radiation scaling patterns induced t...
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