Regional features of future warming using high‐resolution downscaled multimodel climate scenarios in mainland China

Author:

Zhang Lei1,Xu Yinlong2ORCID,Zhao Yuncheng1,Meng Chunchun3,Wang Changgui4,Lin Yihua56

Affiliation:

1. National Meteorological Center Beijing China

2. Institute of Environment and Sustainable Development in Agriculture Chinese Academy of Agricultural Sciences Beijing China

3. Institute of Urban Meteorology China Meteorological Administration Beijing China

4. JBA Consulting, Pipe House Wallingford UK

5. LASG, Institute of Atmospheric Physics Chinese Academy of Sciences Beijing China

6. College of Earth and Planetary Sciences University of Chinese Academy of Sciences Beijing China

Abstract

AbstractThe frequency and magnitude of global warming events varies greatly across different regions and countries. The climatic diversity for China and future warming features are projected across 12 climatic zones based on the ensemble of the five well‐performing high‐resolution downscaled climate models for each zone. There are warming patterns for the mean near‐surface air temperature (Tm), maximum near‐surface air temperature (Tmax), minimum near‐surface air temperature (Tmin) as well as heatwave and frost events. Under RCP4.5 and RCP8.5 scenarios, the three indices (i.e., Tm, Tmax and Tmin) countrywide are likely to increase at respective rates of 0.30–0.31 and 0.64–0.67°C·decade−1. The extent of frost event (FE) are projected to decrease at a rate of −1912 and −4442 day·km−2·decade−1 while the extent of heatwave event (HE) increase at a rate of 1116 and 3557 day·km−2·decade−1 under RCP4.5 and RCP8.5 scenarios, respectively. A higher increment in temperatures, a decreasing trend in diurnal temperature range (DTR), frost days and FE are highlighted in the western and northern zones, while these trends are opposite in southern zones. The warming is likely to get faster in the current colder zones (western and northern zones) while heatwave is more intense and severe in Jianghuai, Jianghan, the south Yangzi River, South China and Xinjiang. These potential changes indicate that adaption and mitigation strategies are necessary in response to future warming.

Publisher

Wiley

Subject

Atmospheric Science

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