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Remote Sensing for Land & Resources    2020, Vol. 32 Issue (3) : 183-190     DOI: 10.6046/gtzyyg.2020.03.24
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A study of the long-term remote sensing dynamic monitoring of inland based on ESTARFM
CHENG Xiaoqian(), HONG Youtang(), CHEN Jinsong, YE Baoying
School of Land Science and Technology, China University of Geoscience(Beijing), Beijing 100083, China
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Abstract  

According to the fact that data missing problem often occurs during the study of long-term remote sensing dynamic monitoring of inland lake area, the authors tried to make up for the missing remote sensing images by utilizing the ESTARFM to combine with the MODIS data so as to simulate the missing Landsat images after 2000. On such a basis, the water index method was used to extract the lake area and shoreline so as to realize the long-term remote sensing dynamic monitoring of inland lake. Hongjiannao Lake in Inner Mongolia was selected as the study area. The method was tested by making up for the missing Landsat images from 1987 to 2018 with ESTARFM algorithm and extracting Hongjiannao Lake from all the images. Some conclusions have been reached: The MODIS and Landsat fusion images generated by the ESTARFM algorithm are ideal, which can effectively solve the problem of missing Landsat images after 2000. It is proved that the image obtained from the ESTARFM fusion can be applied to water extraction. In addition, time-series images with the fusion images are added to reflect the water changes more delicately when the water dynamic change is monitored, which contributes to the subsequent research. In addition, through the long-term remote sensing dynamic change monitoring of Hongjiannao, it is found that the lake changes generally show a shrinking stage, and the specifics can be divided into three stages: stability, sustained shrinkage and growth.

Keywords ESTARFM      inland lake      dynamic change      water index method      Hongjiannao Lake     
:  TP79  
Corresponding Authors: HONG Youtang     E-mail: Chengxq_2018@163.com;hongyoutang@163.com
Issue Date: 09 October 2020
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Xiaoqian CHENG
Youtang HONG
Jinsong CHEN
Baoying YE
Cite this article:   
Xiaoqian CHENG,Youtang HONG,Jinsong CHEN, et al. A study of the long-term remote sensing dynamic monitoring of inland based on ESTARFM[J]. Remote Sensing for Land & Resources, 2020, 32(3): 183-190.
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https://www.gtzyyg.com/EN/10.6046/gtzyyg.2020.03.24     OR     https://www.gtzyyg.com/EN/Y2020/V32/I3/183
Fig.1  Location and image of research area
日期 传感器 日期 传感器
1987-10-08 TM 2004-10-22 TM
1988-10-26 TM 2005-10-09 TM
1989-10-13 TM 2006-10-12 TM
1990-10-16 TM 2007-10-23 ETM+
1991-10-19 TM 2008-10-01 TM
1995-10-14 TM 2009-10-20 TM
1997-10-19 TM 2010-10-07 TM
1998-10-22 TM 2011-10-02 ETM+
1999-10-17 ETM+ 2014-10-02 OLI
2000-10-03 ETM+ 2015-10-05 OLI
2002-10-17 TM 2017-10-26 OLI
2003-10-20 TM 2018-10-29 OLI
Tab.1  List of availble Landsat data in October from 1987 to 2018
年份 预测日期 Landsat数据日期 MODIS数据日期
2001年 10-17 09-20/11-07 09-20/11-07
2007年(实验) 10-23 09-21/11-08 09-21/11-08
2012年 10-17 06-30/12-07 06-30/12-05
2013年 10-13 09-29/11-16 09-28/11-17
2016年 10-13 09-13/11-08 09-13/11-05
Tab.2  List of data needed to predict in October after 2000
Fig.2  ESTARFM input data
Fig.3  Comparison of the fusion result by ESTARFM
Fig.4-1  Comparison of the water index caculated by ESTARFM and Landsat
Fig.4-2  Comparison of the water index caculated by ESTARFM and Landsat
Fig.5  Change of area of Hongjiannao Lake in October 1987—2018
年份 面积 年份 面积
1987年 52.429 5 2005年 41.320 8
1988年 52.231 5 2006年 39.847 5
1989年 50.877 0 2007年 39.491 1
1990年 50.213 7 2008年 38.426 4
1991年 53.889 3 2009年 36.913 5
1995年 52.803 9 2010年 35.144 1
1997年 52.719 3 2011年 33.150 6
1998年 51.413 4 2012年 32.801 4
1999年 47.424 6 2013年 32.218 2
2000年 44.408 7 2014年 31.069 8
2001年 43.225 2 2015年 29.859 3
2002年 43.274 7 2016年 33.850 8
2003年 41.834 7 2017年 35.024 4
2004年 41.371 2 2018年 35.496 0
Tab.3  Area statistics of Hongjiannao Lake from 1987 to 2018(km2)
Fig.6  Spatial distributions and change of Hongjiannao Lake from 1987 to 2018
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