Deriving snow-cover depletion curves for different spatial scales from remote sensing and snow telemetry data

被引:20
作者
Fassnacht, Steven R. [1 ,2 ,3 ]
Sexstone, Graham A. [4 ]
Kashipazha, Amir H. [1 ]
Ignacio Lopez-Moreno, Juan [5 ]
Jasinski, Michael F. [6 ]
Kampf, Stephanie K. [1 ]
Von Thaden, Benjamin C. [1 ]
机构
[1] Colorado State Univ, ESS Watershed Sci, Ft Collins, CO 80523 USA
[2] Cooperat Inst Res Atmosphere, Ft Collins, CO 80523 USA
[3] Colorado State Univ, Geospatial Centroid, Ft Collins, CO 80523 USA
[4] Colorado State Univ, EASC Watershed Sci, Ft Collins, CO 80523 USA
[5] CSIC, Inst Pirenaico Ecol, Campus Aula Dei,POB 202, E-50080 Zaragoza, Spain
[6] NASA, Goddard Space Flight Ctr, Mail Code 617, Greenbelt, MD 20771 USA
关键词
snow depletion curves; snowmelt; SCA; SWE; SNOTEL; MODIS; WATER EQUIVALENT; NORTHERN COLORADO; SNOTEL DATA; VARIABILITY; MODIS; PRODUCTS; MODEL; BASIN; INTERPOLATION; RANGE;
D O I
10.1002/hyp.10730
中图分类号
TV21 [水资源调查与水利规划];
学科分类号
081501 ;
摘要
During the melting of a snowpack, snow water equivalent (SWE) can be correlated to snow-covered area (SCA) once snow-free areas appear, which is when SCA begins to decrease below 100%. This amount of SWE is called the threshold SWE. Daily SWE data from snow telemetry stations were related to SCA derived from moderate-resolution imaging spectroradiometer images to produce snow-cover depletion curves. The snow depletion curves were created for an 80 000 km(2) domain across southern Wyoming and northern Colorado encompassing 54 snow telemetry stations. Eight yearly snow depletion curves were compared, and it is shown that the slope of each is a function of the amount of snow received. Snow-cover depletion curves were also derived for all the individual stations, for which the threshold SWE could be estimated from peak SWE and the topography around each station. A station's peak SWE was much more important than the main topographic variables that included location, elevation, slope, and modelled clear sky solar radiation. The threshold SWE mostly illustrated inter-annual consistency. Copyright (C) 2015 John Wiley & Sons, Ltd.
引用
收藏
页码:1708 / 1717
页数:10
相关论文
共 43 条
[1]  
[Anonymous], 2013, ADV WATER RESOUR, DOI [DOI 10.1016/J.ADVWATRES.2012.03.002, DOI 10.1016/j.advwatres.2012.03.002]
[2]  
[Anonymous], SNOW HYDR
[3]   Fractional snow cover in the Colorado and Rio Grande basins, 1995-2002 [J].
Bales, R. C. ;
Dressler, K. A. ;
Imam, B. ;
Fassnacht, S. R. ;
Lampkin, D. .
WATER RESOURCES RESEARCH, 2008, 44 (01)
[4]   Combining binary decision tree and geostatistical methods to estimate snow distribution in a mountain watershed [J].
Balk, B ;
Elder, K .
WATER RESOURCES RESEARCH, 2000, 36 (01) :13-26
[5]   Modelling snow accumulation with a geographic information system [J].
Chang, KT ;
Li, ZX .
INTERNATIONAL JOURNAL OF GEOGRAPHICAL INFORMATION SCIENCE, 2000, 14 (07) :693-707
[6]  
Davison BJ., 2004, THESIS
[7]   An approach to using snow areal depletion curves inferred from MODIS and its application to land surface modelling in Alaska [J].
Déry, SJ ;
Salomonson, VV ;
Stieglitz, M ;
Hall, DK ;
Appel, I .
HYDROLOGICAL PROCESSES, 2005, 19 (14) :2755-2774
[8]   A LAND COVER-BASED SNOW COVER REPRESENTATION FOR DISTRIBUTED HYDROLOGIC-MODELS [J].
DONALD, JR ;
SOULIS, ED ;
KOUWEN, N ;
PIETRONIRO, A .
WATER RESOURCES RESEARCH, 1995, 31 (04) :995-1009
[9]   Evaluation of gridded snow water equivalent and satellite snow cover products for mountain basins in a hydrologic model [J].
Dressler, KA ;
Leavesley, GH ;
Bales, RC ;
Fassnacht, SR .
HYDROLOGICAL PROCESSES, 2006, 20 (04) :673-688
[10]  
Dubois P., 1977, HIGH CLASS BORROWED