CARE产品：云微物理和短波辐射强迫算法及应用

马润

doi:10.11834/jrs.20232450

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CARE产品：云微物理和短波辐射强迫算法及应用
CARE product： cloud microphysics and shortwave radiation forcing algorithms and applications
2023年页码：1-13
网络出版日期： 2023-03-03 ，
DOI： 10.11834/jrs.20232450

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马润，胡斯勒图.XXXX.CARE产品：云微物理和短波辐射强迫算法及应用.遥感学报，XX（XX）： 1-13

MA Run，HUSI Letu. XXXX. CARE product： cloud microphysics and shortwave radiation forcing algorithms and applications. National Remote Sensing Bulletin， XX（XX）：1-13
马润，胡斯勒图.XXXX.CARE产品：云微物理和短波辐射强迫算法及应用.遥感学报，XX（XX）： 1-13 DOI： 10.11834/jrs.20232450.

MA Run，HUSI Letu. XXXX. CARE product： cloud microphysics and shortwave radiation forcing algorithms and applications. National Remote Sensing Bulletin， XX（XX）：1-13 DOI： 10.11834/jrs.20232450.

摘要

云微物理参数的准确获取对辐射收支计算具有重要的研究意义。本研究首先基于新一代静止气象卫星葵花-8（Himawari-8）数据，结合辐射传输理论与最优化方法反演获得了水云和冰云的光学厚度和粒子有效半径，并将反演结果与MODIS二级云产品进行了对比，发现两者具有较好的一致性。之后，利用反演获得的云光学厚度和粒子有效半径进一步计算获得了地表和大气层顶的短波辐射强迫，并将结果与CERES三级辐射产品进行了对比，发现本研究计算得到的结果与CERES产品均具有较高的相关性，地表和大气层顶短波辐射强迫相关系数R分别高达0.97和0.98，均方根误差RMSE分别为15 Wm

-2

和15.6Wm

-2

，表明具有较高的精度。本文在以往地表短波辐射估算研究基础上，首次将非球形冰晶模型Voronoi拓展至卫星的地表以及大气层顶短波辐射强迫的估算，并通过CERES辐射产品证实了其有效性，该研究可为后续完整辐射收支（短波、长波）估算提供重要参考。相关产品详见CARE主页（

http：//www.slrss.cn/care/

http://www.slrss.cn/care/

）。

Abstract

The accurate acquisition of cloud microphysical parameters

cloud optical thickness (COT) and cloud effective radius (CER)

is of great significance to the calculation of surface or top-of-atmosphere (TOA) radiation budget. However

most of the studies consider little about the cloud phase. Even if the cloud phase state is considered

the ice cloud is assumed to be spherical

which brings errors to the subsequent radiation calculation. In addition

few studies focus on cloud shortwave radiation forcing (SWRF) from satellites

but on downward shortwave radiation at the surface. To solve above problems

this study proposes methods for retrieving COT and CER for water and ice clouds as well as estimation of SWRF from the Himawari-8 satellite.In this study

we proposed a novel method for retrieval of COT and CER for water and ice clouds from the new-generation geostationary satellite Himawari-8 measurements

based on the radiative transfer theory and optimal method. The irregularly shaped model named Voronoi

which was widely used in Japan Aerospace Exploration Agency (JAXA) satellite missions like Himawari-8

GCOMC-C

etc.

was used in our ice cloud model. In addition

a method for estimation of SWRF at the surface and the TOA was proposed

based on the look-up-table (calculated by the radiative transfer model - RSTAT) method

as inputs of retrieved COT and CER above. Finally

validation of retrieved COT and CER from Himawari-8 in this study was performed with Moderate-resolution Imaging Spectroradiometer (MODIS) collection-6 (C6) cloud product

as well as estimated SWRF from Himawari-8 by this study with Clouds and the Earth’s Radiant Energy System (CERES) level-3 (L3) SYN product

respectively.Validation with MODIS C6 cloud product for 4 days in different seasons (2016-01-01

2016-04-01

2016-07-01

2016-10-01) shows that our retrieved COT and CER for water and ice clouds from Himawari-8 have a good agreement with MODIS product

with correlation coefficient (R) values of COT of 0.68 and 0.77

respectively. While for CER

due to the different ice cloud model used in MODIS and this study show a lower R value. While for validation of SWRF with the CERES L3 SYN product

estimated SWRF at the surface and the TOA by this study show very good agreement

with R values of 0.97 and 0.98

root-mean-square-error (RMSE) values of 15.0 Wm

-2

and 16.6 Wm

-2

. While

mean-bias-error (MBE) values of -5.6 Wm

-2

and -8.5 Wm

-2

indict that our SWRF results have a slightly under-estimation.Our proposed methods for retrieving COT and CER

as well as SWRF at the surface and the TOA from Himawari-8 are effective. Although our ice cloud model (Voronoi) is different with MODIS

the finial SWRF validation still shows that our cloud products have high accuracy in other aspects. This research can provide important reference for the subsequent full radiation budget (shortwave plus longwave) estimation. Detailed products please see our homepage (

http://www.slrss.cn/care_zh/

).Objective:Method：Result：Conclusion

关键词

Himawari-8云光学厚度云粒子有效半径短波辐射强迫

Keywords

Himawari-8cloud optical thicknesscloud effective radiusshortwave radiation forcing

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