首页|Accurate Shortwave Radiation Simulation with a Two-Layer Aerosol Model in Xinjiang Region

Accurate Shortwave Radiation Simulation with a Two-Layer Aerosol Model in Xinjiang Region

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To harness the rich solar energy resources in Xinjiang Region of Northwest China,this study tries to address the is-sue of lack of downward surface shortwave radiation(DSSR)observations and the need to improve the accuracy of satellite retrieval and numerical simulation of DSSR under varied sky and meteorological conditions.(1)A two-layer aerosol model specific to Xinjiang was developed to capture the vertical distributions of aerosols based on multiple data sources including lidar,GPS sounding,ground meteorological observations,and profiles from the ECMWF reanalysis version 5(ERA5)data.The results show that the ERA5/PBLH(planetary boundary layer height)and ERA5/ALH(aerosol layer height)could be used to establish the two-layer aerosol model and characterize the vertical distribution of aerosols in Xinjiang Region.(2)Using the Santa Barbara Discrete Atmospheric Radiative Transfer(SBDART)model,a localized inverse model of clear-sky DSSR was established.After parameter adjustment and us-ing the optimal combination of input parameters for DSSR simulation together with the two-layer aerosol model,the model-simulated DSSR(DSSRSBD)under clear-sky conditions improved significantly compared to the initial results,with all fitting indices greatly improved.(3)In addition,the study demonstrated that the impact of the two-layer aero-sol model on DSSR was more pronounced under dust conditions than clear-sky conditions.(4)Using the localized clear-sky DSSR inversion model and its required parameters,simulations were also conducted to capture the spati-otemporal distribution of DSSR under clear-sky conditions in Xinjiang from 2017 to 2019.The annual average DSSRSBD under clear-sky conditions in Xinjiang during 2017-2019 was 606.78 W m-2,while DSSR from CERES(DSSRcER)under the same conditions was generally higher(703.95 W m-2).(5)It is found that satellite remote sens-ing products experienced data loss in high-altitude snow areas,where numerical simulation technology could serve as a valuable complement.

downward surface shortwave radiation(DSSR)aerosol vertical distributionClouds and the Earth's Ra-diant Energy System(CERES)Santa Barbara Discrete Atmospheric Radiative Transfer(SBDART)Xinjiang

Guan HUANG、Yonghang CHEN、Qiong LIU、Pengtao WANG、Qianshan HE、Qing HE、Shuai LI、Weiling SHAO、Ting FAN

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School of Tourism & Research Institute of Human Geography,Xi'an International Studies University,Xi'an 710128

Center for Silk Road and Eurasian Civilization Studies,Xi'an International Studies University,Xi'an 710128

College of Environmental Science and Engineering,Donghua University,Shanghai 201620

Shanghai Meteorological Service,Shanghai 200030

Shanghai Key Laboratory of Meteorology and Health,Shanghai 200030

Taklimakan Desert Meteorology Field Experiment Station of China Meteorological Administration,Institute of Desert Meteorology,Urumqi 830002

Xinjiang Climate Centre,Xinjiang Meteorological Service,Urumqi 830002

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Science and Technology Planning Program of Xinjiang国家自然科学基金国家自然科学基金Scientific Research Program Funded by Education Department of Shaanxi Provincial GovernmentNatural Science Basic Research Program of Shaanxi ProvinceSocial Science Planning Fund Program of Xi'an City

2022E01047420306124190513123JK06252021JQ-76823JX150

2024

10.1007/s13351-024-3133-y

气象学报(英文版)
中国气象学会

气象学报(英文版)

CSTPCD
影响因子：0.57
ISSN：0894-0525
年,卷(期)：2024.38(1)
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