Validation of Narrow-band Surface Albedo Retrieved from FY-3C MERSI Satellite Data

doi:10.11873/j.issn.1004-0323.2020.1.0153

Abstract

Abstract:

Surface albedo is one of the driving factors in surface radiant energy balance and surface-atmosphere interaction.It is widely used in surface energy balance, medium and long-term weather forecasting and global change research.This study aims to validate the surface albedo retrieved from FY-3C MERSI. This paper selected four regions in Africa and North America as study areas to validate the retrieved albedo from the reflectance data and angle data of FY-3C MERSI at 250 m resolution in 2014. The semi-empirical kernel-driven BRDF(bidirectional reflectance distribution function) model RossThick-LiSparseR and least squares fitting method were used to calculate the parameter of BRDF. Then four narrow-band black-sky albedos and four narrow-band white-sky albedos can be obtained by angle integration. Finally, the cross-validation of FY-3C surface narrow-band albedo products with MODIS albedo products (MCD43A3) was carried out. The results show that theRoot Mean Square Error(RMSE) between the FY-3C narrow-band albedo and the corresponding MODIS narrow-band albedo is in the range of 0.01 ~ 0.04, and the Mean Bias (MBIAS) is 0.09. FY-3C narrow-band albedo has good consistency with the corresponding MODIS narrow-band albedo in the visible and near-infrared bands. So, the methodologyof using the BRDF model to invert the surface albedo of FY-3C medium resolution imaging spectrometer data is feasible and reliable. The further improvement of the inversion accuracy of FY3C-MERSI surface albedo also depends on the improvement of basic data processing quality, including image geometric correction, calibration, and strict data quality control.

Key words: Surface Albedo, FY-3C, MERSI, MODIS

鎽樿锛�

鍦拌〃鍙嶇収鐜囨暟鎹鍦拌〃鑳介噺骞宠　鍜屽叏鐞冨彉鍖栫爺绌跺叿鏈夐噸瑕佹剰涔夈�傚熀浜�2014骞碏Y-3C鍗槦250 m鍒嗚鲸鐜囩殑鍙嶅皠鐜囨暟鎹拰瑙掑害鏁版嵁锛岄�夊彇闈炴床鍙婂寳缇庢床鐨�4涓尯鍩熶綔涓虹爺绌跺尯锛岄噰鐢≧ossThick-LiSparseR妯″瀷浣滀负BRDF(Bidirectional Reflectance Distribution Function)鏍告ā鍨嬪弽婕斾簡鍦拌〃绐勬尝娈靛弽鐓х巼锛屽緱鍒�250 m鍒嗚鲸鐜囩殑4涓獎娉㈡榛戠┖銆佺櫧绌哄弽鐓х巼銆傚皢鍙嶆紨寰楀埌鐨凢Y-3C鍦拌〃绐勬尝鍙嶇収鐜囦骇鍝佷笌MODIS鍙嶇収鐜囦骇鍝侊紙MCD43A3锛夋暟鎹繘琛屼簡浜ゅ弶楠岃瘉锛岀粨鏋滆〃鏄庯細FY-3C绐勬尝娈靛弽鐓х巼涓庡搴擬ODIS绐勬尝娈靛弽鐓х巼瀵规瘮鐨勫潎鏂规牴璇樊鍦�0.01~0.04锛屽钩鍧囧亸宸�(MBIAS)涓�0.09锛孎Y-3C绐勬尝娈靛弽鐓х巼涓庡搴旂殑MODIS绐勬尝娈靛弽鐓х巼鍦ㄥ彲瑙佸厜娉㈡銆佽繎绾㈠娉㈡鏈夎緝濂界殑涓�鑷存�с�傛湰鐮旂┒鎻愬崌浜嗗浗浜ч浜戞瀬杞ㄥ崼鏄熺殑搴旂敤鑼冨洿锛屽彲涓篎Y-3C鍦拌〃鍙嶇収鐜囦笟鍔″寲浜у搧鎻愪緵绠楁硶鏀拺銆�

鍏抽敭璇�: 鍦拌〃鍙嶇収鐜�, FY?3C, MERSI, MODIS

CLC Number:

TP75

Chunliang Zhao,Wenbo Xu,Jinlong Fan. Validation of Narrow-band Surface Albedo Retrieved from FY-3C MERSI Satellite Data[J]. Remote Sensing Technology and Application, 2020, 35(1): 153-162.

璧垫槬浜�,璁告枃娉�,鑼冮敠榫�. FY-3C涓垎杈ㄧ巼鎴愬儚鍏夎氨浠暟鎹殑绐勬尝娈靛湴琛ㄥ弽鐓х巼楠岃瘉鐮旂┒[J]. 閬ユ劅鎶�鏈笌搴旂敤, 2020, 35(1): 153-162.

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