You signed in with another tab or window. Reload to refresh your session.You signed out in another tab or window. Reload to refresh your session.You switched accounts on another tab or window. Reload to refresh your session.Dismiss alert
Snow Microwave Radiative Transfer model to compute thermal emission, backscatter and altimetric waveform from snowpack, sea-ice, frozen lakes and other cryospheric environments
An example to calculate the brightness temperature from a one-layer snowpack.
fromsmrtimportmake_snowpack, sensor_list, make_model# create a snowpacksnowpack=make_snowpack(thickness=[10.], # snowpack depth in mmicrostructure_model="sticky_hard_spheres",
density=320.0, # density in kg/m3temperature=260, # temperature in Kelvinradius=100e-6) # scatterers raidus in m# create the sensor (AMSRE, channel 37 GHz vertical polarization)radiometer=sensor_list.amsre('37V')
# create the model including the scattering model (IBA) and the radiative transfer solver (DORT)m=make_model("iba", "dort")
# run the modelresult=m.run(radiometer, snowpack)
print(result.TbV())
License information
See the file LICENSE.txt for terms & conditions for usage, and a DISCLAIMER OF ALL
WARRANTIES.
DISCLAIMER: This version of SMRT is under peer review. Please use this software with caution, ask for assistance if needed, and let us know any feedback you may have.
Janna Rücker: implementation of new sea-ice functions
Jacqueline Boutin: implementation of new sea-ice permittivity functions
About
Snow Microwave Radiative Transfer model to compute thermal emission, backscatter and altimetric waveform from snowpack, sea-ice, frozen lakes and other cryospheric environments