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intercomparisons:intercomparisons [2025/07/21 21:39] claudia [Phase III - 1D spherical geometry] |
intercomparisons:intercomparisons [2026/02/16 09:18] (current) claudia |
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| * The viewing azimuth angle is defined clockwise | * The viewing azimuth angle is defined clockwise | ||
| * The sun position is the position of the sun in the sky defined by solar zenith angle sza and solar azimuth angle saa. Note that the direction vector (vza, vaa) is then opposite to the solar beam travel direction (vaa = saa indicates that the sensor looks into the direction of the sun, vaa-saa = 180° means that the sun is in the back of the sensor) | * The sun position is the position of the sun in the sky defined by solar zenith angle sza and solar azimuth angle saa. Note that the direction vector (vza, vaa) is then opposite to the solar beam travel direction (vaa = saa indicates that the sensor looks into the direction of the sun, vaa-saa = 180° means that the sun is in the back of the sensor) | ||
| + | * Please note that all phase matrices should be interpolated linearly in scattering angle | ||
| * The output format is ascii, details are provided for the individual test cases | * The output format is ascii, details are provided for the individual test cases | ||
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| * For all cases except E6, the same **sun-observer geometries** should be calculated: | * For all cases except E6, the same **sun-observer geometries** should be calculated: | ||
| - | * //viewing zenith angles// (degrees): [0, 9, 18, 26, 34, 41, 48, 54, 60, 65, 70, 74, 78, 81, 84, 86, 88, 89, 90] (up-looking at bottom of atmosphere, down-looking at top of atmosphere] | + | * //viewing zenith angles// (deg): [0, 9, 18, 26, 34, 41, 48, 54, 60, 65, 70, 74, 78, 81, 84, 86, 88, 89, 90] (up-looking at bottom of atmosphere, down-looking at top of atmosphere] |
| - | * //viewing azimuth angles// (degrees): 0-180, 10 degrees increment | + | * //viewing azimuth angles// (deg): 0-180, 10° increment |
| - | * //solar zenith angles// (degrees): [30, 60, 80, 87, 90, 93, 96, 99] | + | * //solar zenith angles// (deg): [30, 60, 80, 87, 90, 93, 96, 99] |
| - | * //solar azimuth angle// (degrees): 0 | + | * //solar azimuth angle// (deg): 0 |
| - | * //sensor altitude// (km): 0, 120 | + | * //sensor altitudes// (km): 0, 120 |
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| + | * Please note that all phase matrices should be interpolated linearly in scattering angle | ||
| + | * The **output format is netcdf**, results of all cases (D and E) shall be included in a single netcdf file using {{:intercomparisons:phase_d:iprt_phase3_model.nc|iprt_phase3_XXX.nc}} as template. Please include normalized radiance and the standard deviation (if you calculate it) for each case: | ||
| + | - radiance_//case//(//case//_zout, //case//_sza, //case//_saa, //case//_vza, //case//_vaa, stokes) | ||
| + | - std_//case//(//case//_zout, //case//_sza, //case//_saa, //case//_vza, //case//_vaa, stokes) | ||
| + | | ||
| === D - Test cases for fully spherical geometry with one layer === | === D - Test cases for fully spherical geometry with one layer === | ||
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| - [[intercomparisons:d4_aerosol_spheroid|Spheroidal aerosols]] | - [[intercomparisons:d4_aerosol_spheroid|Spheroidal aerosols]] | ||
| - [[intercomparisons:d5_water_cloud|Liquid water cloud]] | - [[intercomparisons:d5_water_cloud|Liquid water cloud]] | ||
| - | - [[intercomparisons:d6_mixed|Mixed particle types]] | + | - [[intercomparisons:d6_ocean|Ocean surface]] |
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| - [[intercomparisons:e6_ocean_planet|Ocean planet]] | - [[intercomparisons:e6_ocean_planet|Ocean planet]] | ||
| - | The results of all cases (D and E) shall be included in a single netcdf file using this template: {{:intercomparisons:phase_d:iprt_phase3_model.nc|iprt_phase3_XXX.nc}}. | + | |