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Remote Sensing for Natural Resources    2024, Vol. 36 Issue (3) : 13-27     DOI: 10.6046/zrzyyg.2023065
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Advances in research and application of remote sensing-based snow monitoring products
SUN Xiyong1,2(), LIU Jiafeng1, FAN Jinghui1(), ZHANG Wenkai1, SHI Lijuan3, QIU Yubao3, ZHU Farong4
1. China Aero Geophysical Survey & Remote Sensing Center for Natural Resources,Beijing 100083,China
2. School of Geography and Information Engineering,China University of Geoscience(Wuhan),Wuhan 430074, China
3. Aerospace Information Research Institute, Chinese Academy of Sciences, Beijing 100094,China
4. School of Land Science and Technology,China University of Geoscience(Beijing),Beijing 100083, China
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Abstract  

Snow proves to be both an important factor in characterizing the surface cryosphere and a critical parameter for weather and hydrological phenomena. Employing remote sensing to conduct long-term and large-scale monitoring of snow morphologies and their changes plays a vital role in research into global climate change, investigations into hydrology and water resources, and geological disaster prevention. After decades of development, significant progress has been made in the field of remote sensing-based snow monitoring technology both in China and abroad. Accordingly, the products for remote sensing-based snow monitoring have become increasingly abundant, and the snow-orientated inversion algorithms have been continuously improved. This paper provides a summary of the existing, widely applied products after categorizing them into three types: snow-cover extent (SEC), snow coverage, and snow depth/snow water equivalent (SWE) products. Furthermore, this study organizes the commercialized remote sensing inversion algorithms used in existing, typical SEC and SWE products. The review of advances in the relevant scientific research reveals that, with the constant presence of sensors with high temporal and spatial resolutions in China and abroad and the support of both novel optical and microwave data sources and new technologies, researchers have gradually improved the accuracy of snow-orientated inversion algorithms by optimizing these algorithms based on regional characteristics. This will provide more support for continuously improving remote sensing-based snow monitoring products in the future.

Keywords remote sensing-based snow monitoring product      snow cover      SWE      snow-orientated inversion algorithm     
ZTFLH:  TP79  
Issue Date: 03 September 2024
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Xiyong SUN
Jiafeng LIU
Jinghui FAN
Wenkai ZHANG
Lijuan SHI
Yubao QIU
Farong ZHU
Cite this article:   
Xiyong SUN,Jiafeng LIU,Jinghui FAN, et al. Advances in research and application of remote sensing-based snow monitoring products[J]. Remote Sensing for Natural Resources, 2024, 36(3): 13-27.
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https://www.gtzyyg.com/EN/10.6046/zrzyyg.2023065     OR     https://www.gtzyyg.com/EN/Y2024/V36/I3/13
传感器名称 传感器类型 波长(频率) 空间分辨率/km 观测幅度/km 搭载卫星
TM 光学传感器 0.45~0.52 μm 185 Landsat5
(1984—2011年)
美国
0.52~0.60 μm
0.63~0.69 μm
0.03
0.75~0.90 μm
1.55~1.75 μm
2.08~2.35 μm
10.40~12.50 μm 0.12
ETM+ 光学传感器 0.52~0.90 μm 0.015 185 Landsat7
(1999年至今)
美国
0.45~0.52 μm
0.525~0.605 μm
0.63~0.69 μm 0.03
0.75~0.90 μm
1.55~1.75 μm
2.09~2.35 μm
10.40~12.50 μm 0.06
OLI 光学传感器 0.433~0.453 μm 185 Landsat8
(2013年至今)
美国
0.450~0.515 μm
0.525~0.600 μm
0.630~0.680 μm 0.03
0.845~0.885 μm
1.560~1.660 μm
2.100~2.300 μm
1.360~1.390 μm
0.500~0.680 μm 0.015
MODIS 光学传感器 0.620~0.876 μm 0.25 2 330 EOS Terra
(1999年至今)
美国/日本/加拿大
0.459~2.155 μm 0.5
0.405~0.877 μm 1
0.890~0.965 μm 1
3.660~14.385 μm 1
NOAA/AVHRR 光学传感器 0.58~0.68 μm 1.09 2 800 TIROS-N
(1979年至今)
美国
0.725~1.00 μm
1.58~1.64 μm
3.55~3.93 μm
10.30~11.30 μm
11.50~12.50 μm
MODIS 光学传感器 0.620~0.876 μm 0.25 2 330 EOS Aqua
(2001年至今)
美国
0.459~2.155 μm 0.5
0.405~0.877 μm 1
0.890~0.965 μm 1
3.660~14.385 μm 1
AMSR-E 被动微波传感器 6.925 GHz 1 445 EOS Aqua
(2001年至今)
美国
10.65 GHz 10
18.7 GHz
23.8 GHz
36.5 GHz 5
89.0 GHz
SMMR 被动微波传感 6.33 GHz
10.69 GHz
18.00 GHz
21.00 GHz
37.00 GHz
96×153
59×91
41×55
30×46
18×27
地平线
|
地平线
NIMBUS-7
MWRI 被动微波传感器 10.65 GHz
18.70 GHz
23.80 GHz
36.50 GHz
89.00 GHz
85×51
50×30
45×27
30×18
15×9
1 400 FY-3B/3C/3D
(2008年至今/2010年
至今/2013年至今)
中国
SMM/I 被动微波传感器 19.30 GHz
22.20 V
37.00 GHz
85.50 GHz
70×45
60×40
38×30
16×14

1 394
DMSP-F8/ F11/ F13
(1987—1991年/1991—
2000年/1995—2009年)
美国
SSMIS 被动微波传感器 19.30 GHz
22.20 V
37.00 GHz
85.50 GHz
70×45
60×40
38×30
16×13
1 700 DMSP-F17
(2006—2017年)
美国
DMSP-F18
(2009年至今)
美国
Sentinel-1A 主动微波传感器 C波段: 5.405 GHz 0.025 >80 Sentinel
(2014—2016年)
欧洲太空局
0.1 >250
Sentinel-1B 1 >400
0.025 400
Tab.1  Snow remote sensing commonly used sensors
产品 覆盖范围 空间
分辨率/km
时间
分辨率/d
时间范围 传感器 来源
NOAA IMS 全球 1 1 2014年至今 NOAA,
AVHRR,MODIS,ASCAT
美国国家海洋和大气管理局
http://www.natice.noaa.gov/ims/
4 2004年至今
24 1997—2004年
CryoClim 全球 5 1 1982年至今 AVHRR,SMMR/SSMI 挪威航天中心,欧洲航天局
http://www.cryoclim.net/cryoclim/subsites/data_portal/
MDS10C
GHRM5C
全球 5 1 1979—2013年 MODIS,AVHRR 日本宇航局
http://kuroshio.eorc.jaxa.jp/JASMES/index.html
MEaSUREs 北半球 25 1 1999—2012年 MODIS,AVHRR,AMS-
R-E,
VIIRS,SSMI
NSIDC
ftp://sidads.colorado.edu/pub/DATASETS/nsidc0530_MEASURES_nhsnow_daily25/
青藏高原MODIS逐日无云积雪产品 青藏高原 0.5 1 2002—2010年 MODIS 国家青藏高原科学数据中心
http://data.tpdc.ac.cn
青藏高原MODIS逐日无云积雪面积数据集 青藏高原 0.5 1 2002—2015年 MODIS 中国科学院空天信息创新研究院
https://www.scidb.cn/en/detail?dataSetId=533223505102110720
青藏高原逐日无云积雪数据集 青藏高原 0.5 1 2002—2021年 MODIS 国家青藏高原科学数据中心
http://data.tpdc.ac.cn
FY-1&AVHRR积雪范围产品 全球 5 10 1996—2010年 MVISR,AVHRR 中国气象局
http://satellite.cma.gov.cn
Daily cloud-free snow cover products for Tibetan Plateau from 2002 to 2021 Qinghai-Tibetan
Plateau
0.5 1 2002— 2021年 MODIS https://doi.org/10.11888/Cryos.tpdc.272204
Tab.2  Major snow cover products
数据产品名称 覆盖范围 时间范围 空间分辨率 时间分辨率 传感器 来源
GlobSnow v2.1 北半球 1996—2012年 0.01°×0.01° 逐日/8 d ATSR-2,AATSR 欧洲航天局
http://www.globsnow.info
SCAG 北半球 2000—2013年 500 m 逐日 MODIS,VIRRS NASA
http://snow.jpl.nasa.gov/portal/browse/dataset/urn:snow: MODSCAG
CryoLand 泛欧亚 2000年至今 500 m 逐日 MODIS 欧洲航天局
http://cryoland.eu
Terra积雪产品
(MOD10A1/A2)
全球 2000年至今 500 m/0.05° 逐日/8 d MODIS NSIDC
https://nsidc.org
Aqua积雪产品
(MYD10A1/A2)
全球 2002年至今 500 m/0.05° 逐日/8 d MODIS NSIDC
https://nsidc.org
高亚洲逐日积雪
覆盖度数据集
亚洲 2002—2018年 500 m 逐日 MODIS 中国科学院空天信息创新研究院
https://www.scidb.cn/en/detail?dataSetId=633694460970008576
全球年均积雪面
积比例数据
全球 2000—2021年 500 m 逐年 MODIS 国家青藏高原科学数据中心
http://data.tpdc.ac.cn
Tab.3  Major fractional snow cover products
数据产品 空间范围 时间范围 空间分辨率 时间分辨率 数据源
SMMR积雪雪深产品 全球 1978—1987年 0.5° 逐月 NSIDC
https://nsidc.org
SSM/I雪深产品 全球 1987年至今 25 km 逐日 NSIDC
https://nsidc.org
SSMI/S雪深产品 全球 2003年至今 25 km 逐日 NSIDC
https://nsidc.org
GlobSnow
雪水当量产品
北半球 1979年至今 25 km 逐日/周/月 欧洲航天局
http://www.globsnow.info
AMSR-E雪水当量产品 全球 2002—2011年 25 km 逐日/5 d/月 NASA
http://nsidc.org/data/docs/daac/ae_swe_ease-grids.gd.html
AMSR-2雪水当量/雪深产品 全球 2015年至今 10 km/25 km/Swath 逐日 日本宇航局
https://suzaku.eorc.jaxa.jp/
FY-3B/C雪深/雪水当量产品 全球 2011/2014年至今 25 km 逐日/旬/月 中国气象局
http://satellite.cma.gov.cn
中国雪深长时间序列数据集(1979—2016年) 中国 1979—2016年 0.25° 逐日 国家青藏高原科学数据中心
https://data.tpdc.ac.cn/zh-hans/
高亚洲地区被动微波遥感雪水当量数据集 亚洲 2002—2011年 0.25°/500 m 逐日/周/月 中国科学院空天信息创新研究院
https://www.scidb.cn/en/detail?dataSetId=633694461121003524
2003—2011年
Tab.4  Major snow depth/water equivalent products
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