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#=================================================# Input: Main (soil moisuture, soil temperature)#=================================================* required for any option* defalt: number of soil layer (NLAY_SOIL_LS) = 3* Dimension N = lat x lon x time x lev
STL1.ncnc # Soil temperature level 1 (K) STL2.ncnc # Soil temperature level 2 (K) STL3.ncnc # Soil temperature level 3 (K) TSKIN.nc nc # Skin temperature (K) SWVL1.nc nc # Volumetric soil moisture level1 (m3/m3) SWVL2.ncnc # Volumetric soil moisture level2 (m3/m3) SWVL3.nc nc # Volumetric soil moisture level3 (m3/m3)
#=========================# Input: Soil condition #=========================* required for any option* Dimension N = lat x lon
Z.nc nc # Geopotential at surface (km) # (Take care that is is in km for netcdf input, while m2/s2 when grib or ascii are used) sand.nc nc # Fraction of sandy textured soil (%) range 0-100 clay.nc nc # Fraction of clay textured soil (%) range 0-100
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#-------------------------- # if CIVEG = 'Ecoclimap' #-------------------------- ECOCVL.nc nc # fraction of low veg (-) ECOCVH.ncnc # fraction of high veg (-) # These fractions are such as their sum is the complement to one of the bare soil fraction: # bare soil frac = 1- cvh+cvl ECOTVL.ncnc # low veg type ECOTVH.ncnc # high veg type ECOWAT.nc nc # water fraction (-)
#------------------------------------ # if CIVEG = 'Tessel' or 'HTessel' #------------------------------------ CVL.nc nc # fraction of low veg (-) CVH.ncnc # fraction of high veg (-) # Appart for desert areas these fractions are such as their sum is 1 # Accordingly a weigting function is applied to these fractions to compute bare soil TVL.nc nc # low veg type TVH.nc nc # high veg type LSM.nc nc # land fraction (water fraction is set = 1-LSM) (-)
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#=============================# Input: 2m air temperature #=============================* required if (CITVEG = 'Tair' or 'Da_dual_all' or 'Ds_dual_onlysnow') or (CIATM = 'Pellarin' or 'Ulaby' or 'Input')* Dimension N = lat x lon x time x lev
2T.nc # 2m air temperature (K)
#=========================# Input: Vegetation LAI #=========================* required if CIDVEG = 'HTessel' or 'Ecoclimap'* required file depends on options CIVEG:* Dimension N = lat x lon x time x lev
#-------------------------- # if CIVEG = 'Ecoclimap' #-------------------------- ECOLAIL.nc nc # LAI of low veg for each pixel
#------------------------ # if CIVEG = 'HTessel' #------------------------ LAIL.nc nc # LAI of low veg for each pixel
#===============================================# Input: Atmospheric optical thickness and TB#===============================================* required if CIATM = 'Input'* Dimension N = lat x lon x time x lev
TAU_ATM.ncnc # optical thickness of atmosphere (zenith opacity / cos(angle)) TB_AU.ncnc # upward atmospheric radiation (TB) (K) TB_AD.ncnc # downward atmospheric radiation (TB) (K)
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#------------------------------------------------- # Snow depth in water equivalent (single-layer) #------------------------------------------------- * required if CISNOWSET = 'Single'
SD.nc # snow depth in water equivalent (m)
#------------------------------- # Snow density (single-layer) #------------------------------- * required if CISNOWSET = 'Single'
RSN.nc # snow density (kg/m3)
#----------------------------------- # Snow temperature (single-layer) #----------------------------------- * required if CISNOWSET = 'Single' and CISNOWTEMP = 'Snowtemp'
TSNOW.nc # snow temperature (K)
#-------------------------------------------- # Snow liquid water content (single-layer) #-------------------------------------------- * required if CISNOWSET = 'Single' and CISNOWMV = 'Input'
SLW.nc # snow liquid water content (kg/m2)
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#-------------------------------------------------------------- # Snow depth (WEQ) (multi-layer) # Take care that this is in [kg/m2] for multi-layer input, # while [m] are used for single-layer input SD.nc #-------------------------------------------------------------- * required if CISNOWSET = 'Multi' SDWEQ_1.nc nc # snow water equivalent (kg/m2) : layer 1 (top) SDWEQ_2.nc nc # snow water equivalent (kg/m2) : layer 2 ... # snow water equivalent (kg/m2) : layer ... SDWEQ_$NLAY$NLAY_SNOW.nc nc # snow water equivalent (kg/m2) : layer NLAY_SNOW (bottom)
#------------------------------------------ # Snow liquid water content: multi-layer #------------------------------------------ SLW_1.nc nc # snow liquid water content (kg/m2) : layer 1 (top) SLW_2.nc nc # snow liquid water content (kg/m2) : layer 2 ... # snow liquid water content (kg/m2) : layer ... SLW_$NLAY$NLAY_SNOW.nc nc # snow liquid water content (kg/m2) : layer NLAY_SNOW (bottom)
#----------------------------- # Snow density: multi-layer #----------------------------- RSN_1.ncnc # snow density (kg/m3) : layer 1 (top) RSN_2.ncnc # snow density (kg/m3) : layer 2 ... # snow density (kg/m3) : layer ... RSN_$NLAY$NLAY_SNOW.nc nc # snow density (kg/m3) : layer NLAY_SNOW (bottom)
#--------------------------------- # Snow temperature: multi-layer #--------------------------------- TSNOW_1.nc nc # snow temperature (K) : layer 1 (top) TSNOW_2.ncnc # snow temperature (K) : layer 2 ... # snow temperature (K) : layer ... TSNOW_$NLAY$NLAY_SNOW.nc nc # snow temperature (K) : layer NLAY_SNOW (bottom)
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#=========================# Input: Incident Angle#=========================* required if LTHETA_CONST = .False.* Dimension N = lat x lon x time x lev
ANGLE.nc nc # Incident angle (degrees)
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out_level1_$OPTID_$FREQ_$ANGLE.gribnc
* dimension N = lat x lon x time x lev * variables
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out_level2_$OPTID_$FREQ_$ANGLE.gribnc
* dimension N = lat x lon x time x lev * variables
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out_level2_$OPTID_$FREQ_$ANGLE.gribnc
* dimension N = lat x lon x time x lev * variables
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