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import ruamel_yaml as yml
import numpy as np
# import xarray as xr
from glob import glob
# import scene as scn
from tests import CloudTests
# import tests
# import ocean_day_tests as odt
# import restoral
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# #################################################################### #
# TEST CASE
# data:
_datapath = '/ships19/hercules/pveglio/mvcm_viirs_hires'
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_fname_mod02 = glob(f'{_datapath}/VNP02MOD.A2022173.1454.001.*.uwssec_bowtie_restored.nc')[0]
_fname_mod03 = glob(f'{_datapath}/VNP03MOD.A2022173.1454.001.*.uwssec.nc')[0]
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_fname_img02 = glob(f'{_datapath}/VNP02IMG.A2022173.1454.001.*.uwssec_bowtie_restored.nc')[0]
_fname_img03 = glob(f'{_datapath}/VNP03IMG.A2022173.1454.001.*.uwssec.nc')[0]
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# thresholds:
_threshold_file = '/home/pveglio/mvcm/thresholds.mvcm.snpp.v0.0.1.yaml'
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# ancillary files:
_geos_atm_1 = 'GEOS.fpit.asm.inst3_2d_asm_Nx.GEOS5124.20220622_1200.V01.nc4'
_geos_atm_2 = 'GEOS.fpit.asm.inst3_2d_asm_Nx.GEOS5124.20220622_1500.V01.nc4'
_geos_land = 'GEOS.fpit.asm.tavg1_2d_lnd_Nx.GEOS5124.20220622_1430.V01.nc4'
_geos_ocean = 'GEOS.fpit.asm.tavg1_2d_ocn_Nx.GEOS5124.20220622_1430.V01.nc4'
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_geos_constants = 'GEOS.fp.asm.const_2d_asm_Nx.00000000_0000.V01.nc4'
_ndvi_file = 'NDVI.FM.c004.v2.0.WS.00-04.177.hdf'
_sst_file = 'oisst.20220622'
_eco_file = 'goge1_2_img.v1'
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# #################################################################### #
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def main(*, data_path=_datapath, mod02=_fname_mod02, mod03=_fname_mod03,
img02=_fname_img02, img03=_fname_img03, threshold_file=_threshold_file,
geos_atm_1=_geos_atm_1, geos_atm_2=_geos_atm_2, geos_land=_geos_land,
geos_ocean=_geos_ocean, geos_constants=_geos_constants, ndvi_file=_ndvi_file, sst_file=_sst_file):
# datapath = '/ships19/hercules/pveglio/neige_data/snpp_test_input'
# fname_l1b = 'VNP02MOD.A2014213.1548.001.2017301015346.uwssec.bowtie_restored_scaled.nc'
# fname_geo = 'VNP03MOD.A2014213.1548.001.2017301015705.uwssec.nc'
# thresh_file = '/home/pveglio/mvcm_leo/thresholds/new_thresholds.mvcm.snpp.v1.0.0.yaml'
file_names = {'MOD02': f'{mod02}',
'MOD03': f'{mod03}',
'IMG02': f'{img02}',
'IMG03': f'{img03}',
'GEOS_atm_1': f'{geos_atm_1}',
'GEOS_atm_2': f'{geos_atm_2}',
'GEOS_land': f'{geos_land}',
'GEOS_ocean': f'{geos_ocean}',
'GEOS_constants': f'{geos_constants}',
'NDVI': f'{ndvi_file}',
'SST': f'{sst_file}',
'ANC_DIR': f'{data_path}/ancillary'
}
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with open(threshold_file) as f:
text = f.read()
thresholds = yml.safe_load(text)
sunglint_angle = thresholds['Sun_Glint']['bounds'][3]
viirs_data = rd.get_data(file_names, sunglint_angle)
# scene_xr = xr.Dataset()
# for s in scn._scene_list:
# scene_xr[s] = (('number_of_lines', 'number_of_pixels'), scn.scene_id[s])
# scene_xr['latitude'] = viirs_xr.latitude
# scene_xr['longitude'] = viirs_xr.longitude
#
# viirs_data = xr.Dataset(viirs_xr, coords=scene_xr)
# viirs_data.drop_vars(['latitude', 'longitude'])
cmin_G1 = np.ones(viirs_data.M01.shape)
cmin_G2 = np.ones(viirs_data.M01.shape)
cmin_G3 = np.ones(viirs_data.M01.shape)
cmin_G4 = np.ones(viirs_data.M01.shape)
cmin_G5 = np.ones(viirs_data.M01.shape)
# cmin_test = {'Ocean_Day': np.ones(viirs_data.M01.shape),
# 'Polar_Ocean_Day': np.ones(viirs_data.M01.shape),
# 'Polar_Ocean_Night': np.ones(viirs_data.M01.shape)
# }
# cmin2 = np.ones(viirs_data.M01.shape)
# cmin3 = np.ones(viirs_data.M01.shape)
# cmin4 = np.ones(viirs_data.M01.shape)
# ------------------- #
# ### Testing Setup ###
# ------------------- #
perform = {'11um BT Test': False,
'CO2 High Clouds Test': False,
'Water Vapor High Clouds Test': False,
'Surface Temperature Test': False,
'8.6-11um BT Difference Test': False,
'11-12um BTD Thin Cirrus Test': False,
'11-4um BT Difference Test': False,
'7.3-11um BT Difference Mid-level Clouds': False,
'Water Vapor Cloud Test': False,
'11um BT Variability Test': False,
'11-4um BTD Oceanic Stratus': False,
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'Vis/NIR Ratio Test': False,
'1.6um or 2.1um NIR Reflectance Test': False,
'Visible Reflectance Test': False,
'GEMI Test': False,
'1.38um High Cloud Test': False,
'4-12um BTD Thin Cirrus Test': False
}
# --------------------- #
# ### Group 1 Tests ### #
# --------------------- #
if perform['11um BT Test'] is True:
# 11um BT Test
for scene_name in ['Ocean_Day', 'Ocean_Night', 'Polar_Ocean_Day', 'Polar_Ocean_Night']:
SceneType = CloudTests(viirs_data, scene_name, thresholds)
cmin_G1 = SceneType.single_threshold_test('11um_Test', 'M15', cmin_G1)
if perform['CO2 High Clouds Test'] is True:
# CO2 High Clouds Test
for scene_name in ['Land_Day', 'Land_Night', 'Land_Day_Coast', 'Land_Day_Desert',
'Land_Day_Desert_Coast', 'Ocean_Day', 'Ocean_Night', 'Day_Snow', 'Night_Snow']:
SceneType = CloudTests(viirs_data, scene_name, thresholds)
cmin_G1 = SceneType.single_threshold_test('CO2_High_Clouds_tests', 'bad_data', cmin_G1)
if perform['Water Vapor High Clouds Test'] is True:
# Water Vapor High Clouds Test
for scene_name in ['Land_Day', 'Land_Night', 'Land_Day_Coast', 'Land_Day_Desert',
'Land_Day_Desert_Coast', 'Ocean_Day', 'Ocean_Night', 'Polar_Day_Land',
'Polar_Night_Land', 'Polar_Day_Coast', 'Polar_Day_Desert',
'Polar_Day_Desert_Coast', 'Polar_Day_Snow', 'Polar_Night_Snow', 'Polar_Ocean_Day',
'Polar_Ocean_Night', 'Day_Snow', 'Night_Snow', 'Antarctic_Day']:
SceneType = CloudTests(viirs_data, scene_name, thresholds)
cmin_G1 = SceneType.single_threshold_test('Water_Vapor_High_Clouds_tests', 'bad_data', cmin_G1)
if perform['Surface Temperature Test'] is True:
# Surface Temperature Test
# NOTE: this test requires the thresholds to be preprocessed
for scene_name in ['Land_Night', 'Polar_Night_Land']:
SceneType = CloudTests(viirs_data, scene_name, thresholds)
cmin_G1 = SceneType.single_threshold_test('Surface_Temperature_Test', 'M15-M16', cmin_G1)
if perform['SST Test'] is True:
# SST Test
for scene_name in ['Ocean_Day', 'Ocean_Night', 'Polar_Ocean_Day', 'Polar_Ocean_Night']:
SceneType = CloudTests(viirs_data, scene_name, thresholds)
cmin_G1 = SceneType.single_threshold_test('SST_Test', 'M15-M16', cmin_G1)
# --------------------- #
# ### Group 2 tests ### #
# --------------------- #
if perform['8.6-11um BT Difference Test'] is True:
# 8.6-11um BT Difference Test
for scene_name in ['Ocean_Day', 'Ocean_Night', 'Polar_Ocean_Day', 'Polar_Ocean_Night']:
SceneType = CloudTests(viirs_data, scene_name, thresholds)
cmin_G2 = SceneType.single_threshold_test('8.6-11um_Test', 'M15-M14', cmin_G2)
if perform['11-12um BTD Thin Cirrus Test'] is True:
# 11-12um BT BTD Transmissive Cirrus Test
# NOTE: some of the tests have some differences in how the thresholds are derived
# The commented list scene_name is the complete list, the one currently in use is to test that
# the template code works at least with a subset of scenes that have the same way of deriving the
# thresholds
# for scene_name in ['Land_Day', 'Land_Day_Coast', 'Land_Day_Desert', 'Land_Day_Desert_Coast',
# 'Ocean_Day', 'Ocean_Night', 'Polar_Day_Land', 'Polar_Day_Coast',
# 'Polar_Day_Desert', 'Polar_Day_Desert_Coast', 'Polar_Day_Snow', 'Polar_Night_Snow',
# 'Polar_Ocean_Day', 'Polar_Ocean_Night', 'Day_Snow', 'Night_Snow']:
for scene_name in ['Land_Day', 'Land_Day_Coast', 'Land_Day_Desert', 'Land_Day_Desert_Coast',
'Ocean_Day', 'Ocean_Night', 'Polar_Ocean_Day', 'Polar_Ocean_Night']:
SceneType = CloudTests(viirs_data, scene_name, thresholds)
cmin_G2 = SceneType.single_threshold_test('11-12um_Cirrus_Test', 'M15-M16', cmin_G2)
if perform['11-4um BT Difference Test'] is True:
# 11-4um BT Difference Test
for scene_name in ['Ocean_Night', 'Polar_Ocean_Night']:
pass
if perform['7.3-11um BT Difference Mid-level Clouds'] is True:
for scene_name in ['Land_Night', 'Polar_Night_Land', 'Polar_Night_Snow', 'Night_Snow']:
pass
if perform['Water Vapor Cloud Test'] is True:
for scene_name in ['Polar_Night_Ocean']:
pass
if perform['11um BT Variability Test'] is True:
for scene_name in ['Polar_Night_Ocean']:
pass
if perform['11-4um BTD Oceanic Stratus'] is True:
# 11-4um BT Difference for oceanic stratus (low emissivity water cloud) Test
for scene_name in ['Land_Day', 'Land_Day_Coast', 'Land_Day_Desert', 'Land_Day_Desert_Coast',
'Ocean_Day', 'Ocean_Night', 'Polar_Day_Land', 'Polar_Day_Coast',
'Polar_Day_Desert', 'Polar_Day_Desert_Coast', 'Polar_Day_Snow', 'Polar_Night_Snow',
'Polar_Ocean_Day', 'Polar_Ocean_Night', 'Day_Snow', 'Night_Snow']:
SceneType = CloudTests(viirs_data, scene_name, thresholds)
cmin_G2 = SceneType.single_threshold_test('11-4um_BTD_Oceanic_Stratus_Test', 'M15-M13', cmin_G2)
# --------------------- #
# ### Group 3 tests ### #
# --------------------- #
if perform['NIR Reflectance Test'] is True:
for scene_name in ['Ocean_Day', 'Polar_Ocean_Day']:
SceneType = CloudTests(viirs_data, scene_name, thresholds)
cmin_G3 = SceneType.single_thredhold_test('NIR_Reflectance_Test', 'M07', cmin_G3)
if perform['Vis/NIR Ratio Test'] is True:
for scene_name in ['Ocean_Day', 'Polar_Ocean_Day']:
pass
if perform['1.6um or 2.1um NIR Reflectance Test'] is True:
for scene_name in ['Ocean_Day', 'Polar_Ocean_Day']:
pass
if perform['Visible Reflectance Test'] is True:
for scene_name in ['Land_Day', 'Land_Day_Coast', 'Land_Day_Desert', 'Land_Day_Desert_Coast',
'Polar_Day_Land', 'Polar_Day_Coast', 'Polar_Day_Desert', 'Polar_Day_Desert_Coast']:
pass
if perform['GEMI Test'] is True:
for scene_name in ['Land_Day_Desert', 'Polar_Day_Desert']:
pass
# --------------------- #
# ### Group 4 tests ### #
# --------------------- #
if perform['1.38um High Cloud Test'] is True:
# for scene_name in ['Land_Day', 'Land_Day_Coast', 'Land_Day_Desert', 'Land_Day_Desert_Coast',
# 'Ocean_Day', 'Polar_Day_Land', 'Polar_Day_Coast', 'Polar_Day_Desert',
# 'Polar_Day_Desert_Coast', 'Polar_Ocean_Day', 'Day_Snow']:
for scene_name in ['Land_Day', 'Land_Day_Coast', 'Land_Day_Desert', 'Land_Day_Desert_Coast',
'Polar_Day_Land', 'Polar_Day_Coast', 'Polar_Day_Desert',
'Polar_Day_Desert_Coast', 'Day_Snow']:
# The current loop is missing Ocean_Day and Polar_Ocean_Day because they need some
# preprocessing to compute the thresholds. Once things are implemented I can use the commented
# loop
SceneType = CloudTests(viirs_data, scene_name, thresholds)
cmin_G4 = SceneType.single_threshold_test('1.38um_High_Cloud_Test', 'M09', cmin_G4)
# --------------------- #
# ### Group 5 tests ### #
# --------------------- #
if perform['4-12um BTD Thin Cirrus Test'] is True:
for scene_name in ['Land_Night', 'Polar_Night_Land', 'Polar_Night_Snow', 'Night_Snow']:
pass
cmin_total = cmin_G1 * cmin_G2 * cmin_G3 * cmin_G4 * cmin_G5
return cmin_total
'''
Land_Day = CloudTests(viirs_data, 'Land_Day', thresholds)
Land_Night = CloudTests(viirs_data, 'Land_Night', thresholds)
Land_Day_Coast = CloudTests(viirs_data, 'Land_Day_Coast', thresholds)
Land_Day_Desert = CloudTests(viirs_data, 'Land_Day_Desert', thresholds)
Land_Day_Desert_Coast = CloudTests(viirs_data, 'Land_Day_Desert_Coast', thresholds)
Ocean_Day = CloudTests(viirs_data, 'Ocean_Day', thresholds)
Ocean_Night = CloudTests(viirs_data, 'Ocean_Night', thresholds)
Polar_Day_Land = CloudTests(viirs_data, 'Polar_Day_Land', thresholds)
Polar_Night_Land = CloudTests(viirs_data, 'Polar_Night_Land', thresholds)
Polar_Day_Coast = CloudTests(viirs_data, 'Polar_Day_Coast', thresholds)
Polar_Day_Desert = CloudTests(viirs_data, 'Polar_Day_Desert', thresholds)
Polar_Day_Desert_Coast = CloudTests(viirs_data, 'Polar_Day_Desert_Coast', thresholds)
Polar_Day_Snow = CloudTests(viirs_data, 'Polar_Day_Snow', thresholds)
Polar_Night_Snow = CloudTests(viirs_data, 'Polar_Night_Snow', thresholds)
Polar_Ocean_Day = CloudTests(viirs_data, 'Polar_Ocean_Day', thresholds)
Polar_Ocean_Night = CloudTests(viirs_data, 'Polar_Ocean_Night', thresholds)
Day_Snow = CloudTests(viirs_data, 'Day_Snow', thresholds)
Night_Snow = CloudTests(viirs_data, 'Night_Snow', thresholds)
Antarctic_Day = CloudTests(viirs_data, 'Antarctic_Day', thresholds)
# 11um BT Test
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cmin_G1 = Ocean_Day.single_threshold_test('11um_Test', 'M15', cmin_G1)
cmin_G1 = Polar_Ocean_Day.single_threshold_test('11um_Test', 'M15', cmin_G1)
cmin_G1 = Polar_Ocean_Night.single_threshold_test('11um_Test', 'M15', cmin_G1)
# CO2 High Clouds Test
# NOTE: VIIRS doesn't have the MODIS equivalent of B35 so this test is not performed
cmin_G1 = Land_Day.single_threshold_test('CO2_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Land_Night.single_threshold_test('CO2_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Land_Day_Coast.single_threshold_test('CO2_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Land_Day_Desert.single_threshold_test('CO2_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Land_Day_Desert_Coast.single_threshold_test('CO2_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Ocean_Day.single_threshold_test('CO2_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Ocean_Night.single_threshold_test('CO2_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Day_Snow.single_threshold_test('CO2_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Night_Snow.single_threshold_test('CO2_High_Clouds_Test', 'bad_data', cmin_G1)
# Water Vapor High Clouds Test
# NOTE: VIIRS doesn't have the MODIS equivalent of B27 so this test is not performed
cmin_G1 = Land_Day.single_threshold_test('Water_Vapor_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Land_Night.single_threshold_test('Water_Vapor_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Land_Day_Coast.single_threshold_test('Water_Vapor_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Land_Day_Desert.single_threshold_test('Water_Vapor_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Land_Day_Desert_Coast.single_threshold_test('Water_Vapor_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Ocean_Day.single_threshold_test('Water_Vapor_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Ocean_Night.single_threshold_test('Water_Vapor_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Polar_Day_Land.single_threshold_test('Water_Vapor_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Polar_Night_Land.single_threshold_test('Water_Vapor_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Polar_Day_Coast.single_threshold_test('Water_Vapor_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Polar_Day_Desert.single_threshold_test('Water_Vapor_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Polar_Day_Desert_Coast.single_threshold_test('Water_Vapor_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Polar_Day_Snow.single_threshold_test('Water_Vapor_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Polar_Night_Snow.single_threshold_test('Water_Vapor_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Polar_Ocean_Day.single_threshold_test('Water_Vapor_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Polar_Ocean_Night.single_threshold_test('Water_Vapor_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Day_Snow.single_threshold_test('Water_Vapor_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Night_Snow.single_threshold_test('Water_Vapor_High_Clouds_Test', 'bad_data', cmin_G1)
cmin_G1 = Antarctic_Day.single_threshold_test('Water_Vapor_High_Clouds_Test', 'bad_data', cmin_G1)
# Surface Temperature Test
# ## NOTE: This requires some calculations for the thresholds.
# Moreover this test is using the 11um - 12um difference instead of a single channel
# Also, look at the test carefully for these two cases. Polar_Night_Land uses some hardcoded coeffs
# (i.e. *_df1 and *_df2) that might be worth moving in the thresholds file for consistency
cmin_G1 = Land_Night.single_threshold_test('Surface_Temperature_Test', 'M15-M16', cmin_G1)
cmin_G1 = Polar_Night_Land.single_threshold_test('Surface_Temperature_Test', 'M15-M16', cmin_G1)
# SST Test
# ## NOTE: This requires some calculations for the thresholds.
# Moreover this test is using the 11um - 12um difference instead of a single channel
cmin_G1 = Ocean_Day.single_threshold_test('SST_Test', 'M15-M16', cmin_G1)
cmin_G1 = Polar_Ocean_Day.single_threshold_test('SST_Test', 'M15-M16', cmin_G1)
cmin_G1 = Polar_Ocean_Night.single_threshold_test('SST_Test', 'M15-M16', cmin_G1)
# the following test uses a different set of coefficients compared to the others above
cmin_G1 = Ocean_Night.single_threshold_test('SST_Test', 'M15-M16', cmin_G1)
# 11-8.6um BT Difference Test
cmin_G2 = Ocean_Day.single_threshold_test('11-8.6um_Test', 'M15-M14', cmin_G2)
cmin_G2 = Ocean_Night.single_threshold_test('11-8.6um_Test', 'M15-M14', cmin_G2)
cmin_G2 = Polar_Ocean_Day.single_threshold_test('11-8.6um_Test', 'M15-M14', cmin_G2)
cmin_G2 = Polar_Ocean_Night.single_threshold_test('11-8.6um_Test', 'M15-M14', cmin_G2)
# 11-12um BT Difference
cmin_G1 = Ocean_Day.single_threshold_test('11-12BT_diff',
viirs_data.M15.values-viirs_data.M16.values,
cmin_G1)
Ocean_Night = CloudTests(viirs_data, 'Ocean_Night', thresholds)
cmin_G1 = Ocean_Night.single_threshold_test('11um_test', viirs_data.M15.values, cmin_G1)
cmin_G1 = Ocean_Night.single_threshold_test('11-12um_diff',
viirs_data.M15.values-viirs_data.M16.values,
cmin_G1)
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c = np.ones((9, viirs_data['M01'].shape[0], viirs_data['M01'].shape[1]))
cmin1, c[0, :, :], bit1 = odt.simple_test(viirs_data.M15.values, thresholds['Daytime_Ocean']['bt11'], cmin1)
cmin1, c[1, :, :], bit2 = odt.sst_test(viirs_data.M15.values, viirs_data.M16.values,
viirs_data.sensor_zenith.values, viirs_data.geos_sfct.values,
thresholds['Daytime_Ocean']['sst'], cmin1)
cmin2, c[2, :, :], bit3 = odt.simple_test(viirs_data.M14.values-viirs_data.M15.values,
thresholds['Daytime_Ocean']['diff_11_86um'], cmin2)
cmin2, c[3, :, :], bit4 = odt.test_11_12_diff(viirs_data, thresholds['Daytime_Ocean']['diff11_12um'], cmin2)
cmin2, c[4, :, :] = odt.test_11_4_diff(viirs_data.M15.values, viirs_data.M12.values,
thresholds['Daytime_Ocean']['test11_4lo'], scene_flags, cmin2)
cmin3, c[5, :, :] = odt.nir_refl_test(viirs_data.M07.values, thresholds['Daytime_Ocean'],
thresholds['Sun_Glint'], viirs_data, cmin3)
cmin3, c[6, :, :] = odt.vis_nir_ratio_test(viirs_data.M05.values, viirs_data.M07.values,
thresholds, scene_flags, cmin3)
cmin3, c[7, :, :] = odt.nir_refl_test(viirs_data.M10.values, thresholds['Daytime_Ocean'],
thresholds['Sun_Glint'], viirs_data, cmin3)
#
# confidence[0, :, :] = tests.test_11um(viirs_data.M15.values, thresholds['Daytime_Ocean'])
# confidence[1, :, :] = tests.test_11_4diff(viirs_data.M15.values, viirs_data.M13.values,
# thresholds['Daytime_Ocean'], viirs_data,
# thresholds['Sun_Glint']['bounds'][3])
#
# confidence[2, :, :] = tests.nir_refl_test(viirs_data.M07.values, thresholds['Daytime_Ocean'],
# thresholds['Sun_Glint'], viirs_data)
#
# # Note that here I'm using M05/M07 but the corresponding hi-res channels are I1/I2
# # IMPORTANT: conf_test_dble() needs to be verified. I don't think it's working as intended at the moment
# confidence[3, :, :] = tests.vis_nir_ratio_test(viirs_data.M05.values, viirs_data.M07.values,
# thresholds['Daytime_Ocean'], thresholds['Sun_Glint'])
#
# # This test needs to be verified, for the granule I'm running everything is zero
# confidence[4, :, :] = tests.test_11um_var(viirs_data.M15.values, thresholds['Nighttime_Ocean'],
# thresholds['Daytime_Ocean_Spatial_Variability'])
Paolo Veglio
committed
total_bit = bit1 + bit2 + bit4
temp_confidence = cmin1 * cmin2 * cmin3 * cmin4
confidence = cmin1 * cmin2 * cmin3 * cmin4
Paolo Veglio
committed
# idx = np.nonzero((scene_flags['water'] == 1) & (scene_flags['ice'] == 0) & (scene_flags['uniform'] == 1) &
# (confidence <= 0.99) & (confidence >= 0.05))
# confidence[idx] = restoral.spatial(viirs_data, thresholds['Sun_Glint'], scene_flags, confidence)[idx]
Paolo Veglio
committed
idx = np.nonzero((scene_flags['water'] == 1) & (scene_flags['sunglint'] == 1) &
(scene_flags['uniform'] == 1) & (confidence <= 0.95))
confidence[idx] = restoral.sunglint(viirs_data, thresholds['Sun_Glint'], total_bit, temp_confidence)[idx]
temp = np.zeros((viirs_data.M01.shape[0], viirs_data.M01.shape[1]))
temp[idx] = 1
c[8, :, :] = temp
np.savez('test_confidence', confidence=confidence, conf_test=c,
lat=viirs_data.latitude.values, lon=viirs_data.longitude.values)
return confidence
'''
def test_main():
rad1 = [[255, 260, 265, 248, 223],
[278, 285, 270, 268, 256],
[275, 273, 266, 254, 259]]
rad2 = [[270, 273, 271, 268, 265],
[277, 286, 275, 277, 269],
[280, 281, 272, 270, 267]]
thresh_file = '/home/pveglio/mvcm_leo/thresholds/new_thresholds.mvcm.snpp.v1.0.0.yaml'
with open(thresh_file) as f:
text = f.read()
rad1 = np.array(rad1)
rad2 = np.array(rad2)
confidence = np.zeros((2, rad1.shape[0], rad1.shape[1]))
thresholds = yml.safe_load(text)
confidence[0, :, :] = tests.test_11um(rad1, thresholds['Daytime_Ocean'])
confidence[1, :, :] = tests.test_11_4diff(rad1, rad2, thresholds['Daytime_Ocean'])
print(f'Confidence[0,:,:]: \n {confidence[0, :, :]}')
print(f'Confidence[1,:,:]: \n {confidence[1, :, :]}')
return confidence
if __name__ == "__main__":