>>> import ansys.fluent.core as pyfluent
>>> radiation = pyfluent.Radiation(settings_source=solver)
>>> from pprint import pprint
>>> pprint(radiation.get_state(), width=1)
{'model': 'none',
'solar_load': {'solar_model': 'none',
'sun_direction_vector_definition': None}}
>>> pprint(radiation.model.allowed_values(), width=1)
['none',
'p1',
's2s',
'discrete-ordinates',
'monte-carlo']
>>> radiation.model.set_state("monte-carlo")
>>> pprint(radiation.get_state(), width=1)
{'model': 'monte-carlo',
'monte_carlo': {'number_of_histories': 100000,
'target_cells_per_volume_cluster': 1,
'under_relaxation': 0.5},
'multiband': None,
'solar_load': {'solar_model': 'none',
'sun_direction_vector_definition': None},
'solve_frequency': {'iteration_interval': 10}}
>>> radiation.monte_carlo.number_of_histories.set_state(1e7)
>>> radiation.multiband.create("solar").set_state({
>>> "start": 0,
>>> "end": 2.8,
>>> })
>>> radiation.multiband.create("thermal-ir").set_state({
>>> "start": 2.8,
>>> "end": 100,
>>> })
>>> radiation_freq = radiation.solve_frequency
>>> pprint(radiation_freq.get_state(), width=1)
{'iteration_interval': 10}
>>> pprint(radiation.get_state(), width=1)
{'model': 'monte-carlo',
'monte_carlo': {'number_of_histories': 10000000.0,
'target_cells_per_volume_cluster': 1,
'under_relaxation': 0.5},
'multiband': {'solar': {'end': 2.8,
'name': 'solar',
'start': 0},
'thermal-ir': {'end': 100,
'name': 'thermal-ir',
'start': 2.8}},
'solar_load': {'solar_model': 'none',
'sun_direction_vector_definition': None},
'solve_frequency': {'iteration_interval': 10}}