def setup_method(self):
"""
This ensures a new Workspace for every test.
"""
self.dir = os.path.dirname(os.path.realpath(__file__))
self.ws = Workspace(verbosity=0)
self.setup_workspace()
def test_variable_create(self):
"""
Test initialization of workspace variables.
"""
self.ws = Workspace()
self.ws.IndexCreate("myindex")
with pytest.raises(Exception):
print(self.ws.myindex.value)
def configure_workspace(verbosity=0):
"""Configures the ARTS application.
Args:
verbosity: ARTS verbosity level.
Returns:
A Workspace object.
"""
workspace = Workspace(verbosity=0)
for name in ["general", "continua", "agendas"]:
workspace.execute_controlfile(join("general", "{}.arts".format(name)))
workspace.verbositySetScreen(workspace.verbosity, verbosity)
workspace.jacobianOff()
workspace.Copy(workspace.abs_xsec_agenda, workspace.abs_xsec_agenda__noCIA)
workspace.AtmosphereSet1D()
return workspace
def setup(self, verbosity=0):
self.verbosity = verbosity
self._workspace = Workspace(verbosity=verbosity,
agenda_verbosity=verbosity)
ws = self._workspace
for include in self.includes:
ws.execute_controlfile(include)
ws.Copy(ws.ppath_agenda, ws.ppath_agenda__FollowSensorLosPath)
ws.Copy(ws.ppath_step_agenda, ws.ppath_step_agenda__GeometricPath)
ws.Copy(ws.iy_space_agenda, ws.iy_space_agenda__CosmicBackground)
ws.Copy(ws.iy_surface_agenda, ws.iy_surface_agenda__UseSurfaceRtprop)
ws.Copy(ws.iy_main_agenda, ws.iy_main_agenda__Emission)
self.atmosphere.setup(ws, self.sensors)
for s in self.sensors:
s.setup(ws, self.atmosphere.scattering)
self._setup = True
def test_dimension_broadcast():
"""
Test propagation of dimension information for ARTS properties
as well as broadcasting.
"""
class A(ArtsObject):
def __init__(self):
super().__init__()
pass
@arts_property("Vector", shape=(dim.P, ), wsv=wsv["p_grid"])
def p_grid():
return None
@arts_property("Tensor3",
shape=(dim.P, dim.Lat, dim.Lon),
wsv=wsv["t_field"])
def temperature(self):
return None
class TProvider:
def __init__(self):
pass
def get_temperature(self):
return np.ones((1, 3, 5))
ws = Workspace()
a = A()
dp = TProvider()
a.p_grid = np.zeros(4)
a.setup_arts_properties(ws)
a.get_data_arts_properties(ws, dp)
assert (ws.t_field.value.shape[0] == 4)
assert (np.all(ws.p_grid.value == np.zeros(4)))
import os
from pyarts.workspace import Workspace
from pyarts.classes.SpeciesAuxData import SpeciesAuxData
from pyarts.classes import from_workspace
# Get a workspace
ws = Workspace()
datapath = "../../arts-xml-data/" if not os.getenv(
"ARTS_XML_DATA_DIR") else os.getenv("ARTS_XML_DATA_DIR")
fn = os.path.join(datapath, 'planets/Mars/isotopratio_Mars.xml')
sad1 = SpeciesAuxData()
sad1.readxml(fn)
sad2 = from_workspace(ws.isotopologue_ratios)
ws.ReadXML(ws.isotopologue_ratios, fn)
sad3 = SpeciesAuxData()
sad3.set(sad2)
sad4 = SpeciesAuxData()
sad1.savexml("tmp.sad.xml", "binary")
sad4.readxml("tmp.sad.xml")
assert sad1 == sad4
assert sad1 == sad2
assert sad1 == sad3
import os
from pyarts.workspace import Workspace
from pyarts.classes import from_workspace
from pyarts.classes.AbsorptionLines import AbsorptionLines, ArrayOfAbsorptionLines
ws = Workspace()
datapath = "../../arts-xml-data/" if not os.getenv(
"ARTS_XML_DATA_DIR") else os.getenv("ARTS_XML_DATA_DIR")
fn1 = os.path.join(datapath, 'spectroscopy/Artscat/')
fn2 = os.path.join(datapath, 'spectroscopy/Artscat/O2-66.xml')
# Init
al = AbsorptionLines()
aal = ArrayOfAbsorptionLines()
aaal = from_workspace(ws.abs_lines_per_species)
# Init is as expected
assert al.selfbroadening == False, "Bad init"
assert al.bathbroadening == False, "Bad init"
assert al.cutoff == "None", "Bad init"
assert al.mirroring == "None", "Bad init"
assert al.population == "LTE", "Bad init"
assert al.normalization == "None", "Bad init"
assert al.lineshapetype == "VP", "Bad init"
assert al.t0 == 296, "Bad init"
assert al.cutofffreq == -1, "Bad init"
assert al.linemixinglimit == -1, "Bad init"
assert al.quantumidentity.spec_ind == -1, "Bad init"
assert al.quantumidentity.type == "None", "Bad init"
assert not al.localquantumnumbers, "Bad init"
assert not al.broadeningspecies, "Bad init"
def setup_method(self):
"""
This ensures a new Workspace for every test.
"""
self.ws = Workspace(verbosity = 0)
self.setup_workspace()
class TestVariables:
"""
Tests the manipulation of workspace variables.
"""
def setup_method(self):
"""
This ensures a new Workspace for every test.
"""
self.dir = os.path.dirname(os.path.realpath(__file__))
self.ws = Workspace(verbosity=0)
self.setup_workspace()
def setup_workspace(self):
ws = self.ws
ws.atmosphere_dim = 1
ws.p_grid = np.linspace(1e5, 1e3, 21)
ws.Touch(ws.lat_grid)
ws.Touch(ws.lon_grid)
ws.f_grid = 183.0e9 * np.ones(1)
ws.stokes_dim = 1
ws.sensor_los = 180.0 * np.ones((1, 1))
ws.sensor_pos = 830e3 * np.ones((1, 1))
ws.sensorOff()
def test_index_transfer(self):
"""
Create and set Index WSV.
"""
self.ws.IndexCreate("index_variable")
i = np.random.randint(0, 100)
self.ws.index_variable = i
assert self.ws.index_variable.value == i
def test_string_transfer(self):
"""
Create and set String WSV.
"""
self.ws.StringCreate("string_variable")
s = "some random string."
self.ws.string_variable = s
assert self.ws.string_variable.value == s
def test_array_of_index_transfer(self):
"""
Create and set ArrayOfIndex WSV.
"""
self.ws.ArrayOfIndexCreate("array_of_index_variable")
i = [np.random.randint(0, 100) for j in range(10)]
self.ws.array_of_index_variable = i
assert self.ws.array_of_index_variable.value == i
self.ws.array_of_index_variable = []
assert self.ws.array_of_index_variable.value == []
def test_array_of_vector_transfer(self):
"""
Create and set ArrayOfVector WSV.
"""
self.ws.ArrayOfVectorCreate("array_of_vector_variable")
aov = pyarts.xml.load(
os.path.join(self.dir, "../xml/reference/arrayofvector.xml"))
self.ws.array_of_vector_variable = aov
assert self.ws.array_of_vector_variable.value == aov
def test_vector_transfer(self):
"""
Create and set Vector WSV.
"""
self.ws.VectorCreate("vector_variable")
v = np.random.rand(10)
self.ws.vector_variable = v
assert all(self.ws.vector_variable.value == v)
def test_matrix_transfer(self):
"""
Create and set Matrix WSV.
"""
self.ws.MatrixCreate("matrix_variable")
m = np.random.rand(10, 10)
self.ws.matrix_variable = m
assert all(self.ws.matrix_variable.value.ravel() == m.ravel())
def test_sparse_transfer(self):
"""
Create and set Sparse WSV.
"""
n = 100
d2 = np.ones(n - 2)
d1 = np.ones(n - 1)
d = np.ones(n)
m = sp.sparse.diags(diagonals=[d2, d1, d, d1, d2],
offsets=[2, 1, 0, -1, -2])
self.ws.sensor_response = m
assert np.all(m.toarray() == self.ws.sensor_response.value.toarray())
def test_tensor_3(self):
"""
Create and set Tensor3 variable.
"""
t_0 = np.random.rand(*([3] * 3))
self.ws.Tensor3Create("tensor_3")
self.ws.tensor_3 = t_0
assert np.all(t_0 == self.ws.tensor_3.value)
def test_tensor_4(self):
"""
Create and set Tensor4 variable.
"""
t_0 = np.random.rand(*([3] * 4))
t_1 = self.ws.Tensor4Create("tensor_4")
self.ws.tensor_4 = t_0
assert np.all(t_0 == self.ws.tensor_4.value)
def test_tensor_5(self):
"""
Create and set Tensor5 variable.
"""
t_0 = np.random.rand(*([3] * 5))
t_1 = self.ws.Tensor5Create("tensor_5")
self.ws.tensor_5 = t_0
assert np.all(t_0 == self.ws.tensor_5.value)
def test_tensor_6(self):
"""
Create and set Tensor6 variable.
"""
t_0 = np.random.rand(*([3] * 6))
t_1 = self.ws.Tensor6Create("tensor_6")
self.ws.tensor_6 = t_0
assert np.all(t_0 == self.ws.tensor_6.value)
def test_tensor_7(self):
"""
Create and set Tensor7 variable.
"""
t_0 = np.random.rand(*([3] * 7))
self.ws.Tensor7Create("tensor_7")
self.ws.tensor_7 = t_0
assert np.all(t_0 == self.ws.tensor_7.value)
def test_time(self):
"""
Create and set Time variable.
"""
times = ["2020-01-02 03:04:05", "2021-02-03 04:05:06"]
self.ws.ArrayOfTimeCreate("time_1")
self.ws.ArrayOfTimeNLinSpace(self.ws.time_1, 2, times[0], times[1])
assert (times[0] == str(self.ws.time_1.value[0])[0:19]
and times[1] == str(self.ws.time_1.value[1])[0:19])
def test_creation(self):
"""
Test creation of WSVs.
"""
self.ws.ArrayOfIndexCreate("array_of_index")
self.ws.ArrayOfIndexCreate("array_of_index")
with pytest.raises(Exception):
self.ws.VectorCreate("array_of_index")
def test_covariance_matrix(self):
"""
Test manipulation of CorvarianceMatrix objects.
"""
ws = self.ws
ws.jacobianInit()
ws.jacobianAddAbsSpecies(species="O3",
g1=ws.p_grid,
g2=ws.lat_grid,
g3=ws.lon_grid)
ws.jacobianAddAbsSpecies(species="H2O",
g1=ws.p_grid,
g2=ws.lat_grid,
g3=ws.lon_grid)
ws.jacobianClose()
ws.covmatDiagonal(out=ws.covmat_block,
out_inverse=ws.covmat_block,
vars=10.0 * np.ones(ws.p_grid.value.size))
ws.covmat_sxAddBlock(block=ws.covmat_block)
ws.covmatDiagonal(out=ws.covmat_block,
out_inverse=ws.covmat_block,
vars=20.0 * np.ones(ws.p_grid.value.size))
ws.covmat_sxAddBlock(block=ws.covmat_block)
def test_variable_creation(self):
"""
Test creation of named and unnambed WSVs.
"""
# Unnamed variable
wsv = self.ws.create_variable("Matrix", None)
self.ws.__setattr__(wsv.name, np.eye(5))
assert np.all(
np.isclose(np.eye(5),
self.ws.__getattr__(wsv.name).value))
# Named variable
wsv = self.ws.create_variable("Matrix", "matrix_wsv")
self.ws.matrix_wsv = np.eye(5)
assert np.all(np.isclose(np.eye(5), self.ws.matrix_wsv.value))
def test_variable_set_empty(self):
"""
Test initialization of workspace variables.
"""
self.ws.f_grid = np.array([94e9])
self.ws.f_grid = []
assert self.ws.f_grid.value.size == 0
def test_variable_create(self):
"""
Test initialization of workspace variables.
"""
self.ws = Workspace()
self.ws.IndexCreate("myindex")
with pytest.raises(Exception):
print(self.ws.myindex.value)
def test_convert(self):
"""
Test automatic conversion of Python types.
"""
v = WorkspaceVariable.convert("Index", 1.2)
assert (v == 1)
v = WorkspaceVariable.convert("String", "string")
assert (v == "string")
v = WorkspaceVariable.convert("Numeric", 1)
assert (type(v) == np.float64)
v = WorkspaceVariable.convert("Vector", 1.0)
assert (v.shape == (1, ))
v = WorkspaceVariable.convert("Matrix", 1.0)
assert (v.shape == (1, 1))
v = WorkspaceVariable.convert("Tensor3", 1.0)
assert (v.shape == (1, 1, 1))
v = WorkspaceVariable.convert("Tensor6", 1.0)
assert (v.shape == (1, 1, 1, 1, 1, 1))
v = WorkspaceVariable.convert("ArrayOfArrayOfIndex", 1.0)
assert (type(v) == list)
assert (type(v[0]) == list)
assert (type(v[0][0]) == int)
v = WorkspaceVariable.convert("ArrayOfArrayOfIndex", 1)
return v
from time import sleep
from math import isclose
from pyarts.workspace import Workspace
from pyarts.classes.Timer import Timer
from pyarts.classes import from_workspace
ws = Workspace()
ws.timerStart()
time = 1
sleep(time)
ws.timerStop()
t = from_workspace(ws.timer)
assert isinstance(t, Timer)
if t.supported:
# Test that we are within 2.5 ticks of the true answer
assert isclose((t.realtime_end - t.realtime_start) / t.tick,
time,
rel_tol=2.5 / t.tick)
# t2 = Timer()
# t.savexml("tmp.t.xml", "binary")
# t2.readxml("tmp.t.xml")
# assert t == t2
class TestAgendas:
"""
Tests the calling of ARTS workspace methods.
"""
def setup_method(self):
"""
This ensures a new Workspace for every test.
"""
self.ws = Workspace(verbosity = 0)
self.setup_workspace()
def setup_workspace(self):
self.ws.execute_controlfile("artscomponents/clearsky/TestClearSky.arts")
def test_assignment(self):
"""
Test assignment of agendas.
"""
ws = self.ws
ws.ppath_agenda = ppath_agenda
def test_include(self):
ws = self.ws
@arts_agenda
def ppath_agenda_inc(ws):
INCLUDE(ppath_agenda)
ws.ppath_agenda = ppath_agenda_inc
def test_execution(self):
"""
Test definition and execution of agendas.
"""
self.ws.atmosphere_dim = 1
@arts_agenda
def add_1(ws):
ws.IndexAdd(ws.atmosphere_dim,
ws.atmosphere_dim,
1)
add_1.execute(self.ws)
assert self.ws.atmosphere_dim.value == 2
add_1.append(add_1)
add_1.execute(self.ws)
assert self.ws.atmosphere_dim.value == 4
args = [self.ws.atmosphere_dim, self.ws.atmosphere_dim, 1]
@arts_agenda
def add_2(ws):
ws.IndexAdd(*args)
add_2.execute(self.ws)
assert self.ws.atmosphere_dim.value == 5
def test_callback(self):
"""
Test callbacks by re-implementing iy_space_agenda in Python and
comparing results of yCalc.
"""
z_ppath = []
ws = self.ws
ws.yCalc()
y_old = np.copy(ws.y.value)
import scipy.constants as c
@arts_agenda(allow_callbacks=True)
def space_agenda(ws):
# Since everything happens in Python we need
# to tell ARTS that we are using all in and outputs.
ws.Ignore(ws.f_grid)
ws.Ignore(ws.rtp_pos)
ws.Ignore(ws.rtp_los)
ws.Touch(ws.iy)
# Temperatures and frequency
t = 2.735
f = ws.f_grid.value
# Compute radiances
c1 = 2.0 * c.h / c.c ** 2
c2 = c.h / c.k
b = c1 * f ** 3 / (np.exp(c2 * f / t) - 1.0)
# Put into iy vector.
ws.iy = np.zeros((f.size, ws.stokes_dim.value))
ws.iy.value[:, 0] = b
# Copy ppath_agenda into workspace.
ws.iy_space_agenda = space_agenda
ws.yCalc()
y_new = np.copy(ws.y.value)
assert(np.allclose(y_new, y_old))
def test_callback_2(self):
"""
Test a very complicated Python callback.
"""
@arts_agenda(allow_callbacks=True)
def agenda(ws):
"""
This agenda sets a workspace variable in a very
obscure way.
"""
class Foo:
def __init__(self, ws):
self.ws = ws
def ooo(self):
self.ws.IndexSet(ws.stokes_dim, 42)
foo = Foo(ws)
ws.IndexSet(ws.stokes_dim, 21)
foo.ooo()
agenda.execute(self.ws)
def test_unknown_wsv(self):
"""
Ensure that an exception is thrown when an unknown WSV is
used inside an agenda.
This covers https://github.com/atmtools/arts/issues/368
"""
with pytest.raises(ValueError):
@arts_agenda
def my_agenda(ws):
ws.UnknownMethod()
def test_starred(self):
"""
Test expansion of starred expression.
"""
@arts_agenda
def agenda(ws):
"""
This agenda uses a starred expression.
"""
ws.IndexSet(*[ws.stokes_dim, 42])
self.ws.stokes_dim = 0
agenda.execute(self.ws)
assert self.ws.stokes_dim.value == 42
def test_double_starred(self):
"""
Test expansion of starred expression.
"""
@arts_agenda
def agenda(ws):
"""
This agenda uses a starred expression.
"""
ws.IndexSet(**{"out" : ws.stokes_dim,
"value" : 42})
self.ws.stokes_dim = 0
agenda.execute(self.ws)
assert self.ws.stokes_dim.value == 42
def test_exception(self):
"""
Ensure that exception is thrown when a agenda
variable is set to an invalid value.
"""
@arts_agenda(allow_callbacks=True)
def abs_xsec_agenda(ws):
pass
self.ws = pyarts.workspace.Workspace()
with pytest.raises(Exception):
self.ws.abs_xsec_agenda = abs_xsec_agenda
def __init__(self,
ws=None,
threads=None,
nstreams=4,
scale_vmr=True,
verbosity=0):
"""Initialize a wrapper for an ARTS workspace.
Parameters:
ws (pyarts.workspace.Workspace): An ARTS workspace.
threads (int): Number of threads to use.
Default is all available threads.
nstreams (int): Number of viewing angles to base the radiative
flux calculation on.
scale_vmr (bool): Control whether dry volume mixing ratios are
scaled with the water-vapor concentration (default is `False.`)
verbosity (int): Control the ARTS verbosity from 0 (quiet) to 2.
"""
from pyarts.workspace import Workspace, arts_agenda
self.nstreams = nstreams
self.scale_vmr = scale_vmr
if ws is None:
self.ws = Workspace(verbosity=verbosity)
self.ws.execute_controlfile("general/general.arts")
self.ws.execute_controlfile("general/continua.arts")
self.ws.execute_controlfile("general/agendas.arts")
self.ws.execute_controlfile("general/planet_earth.arts")
# Agenda settings
self.ws.Copy(self.ws.abs_xsec_agenda, self.ws.abs_xsec_agenda__noCIA)
self.ws.Copy(self.ws.iy_main_agenda, self.ws.iy_main_agenda__Emission)
self.ws.Copy(self.ws.iy_space_agenda,
self.ws.iy_space_agenda__CosmicBackground)
self.ws.Copy(self.ws.iy_surface_agenda,
self.ws.iy_surface_agenda__UseSurfaceRtprop)
self.ws.Copy(
self.ws.propmat_clearsky_agenda,
self.ws.propmat_clearsky_agenda__LookUpTable,
)
self.ws.Copy(self.ws.ppath_agenda,
self.ws.ppath_agenda__FollowSensorLosPath)
self.ws.Copy(self.ws.ppath_step_agenda,
self.ws.ppath_step_agenda__GeometricPath)
@arts_agenda
def p_eq_agenda(workspace):
workspace.water_p_eq_fieldMK05()
self.ws.Copy(self.ws.water_p_eq_agenda, p_eq_agenda)
@arts_agenda
def cloudbox_agenda(workspace):
workspace.iyInterpCloudboxField()
self.ws.Copy(self.ws.iy_cloudbox_agenda, cloudbox_agenda)
# Number of Stokes components to be computed
self.ws.IndexSet(self.ws.stokes_dim, 1)
self.ws.jacobianOff() # No jacobian calculation
self.ws.cloudboxOff() # Clearsky = No scattering
# Set Absorption Species
self.ws.abs_speciesSet(species=[
"O2, O2-CIAfunCKDMT100",
"H2O, H2O-SelfContCKDMT252, H2O-ForeignContCKDMT252",
"O3",
"CO2, CO2-CKDMT252",
"N2, N2-CIAfunCKDMT252, N2-CIArotCKDMT252",
"N2O",
"CH4",
"CO",
])
# Surface handling
self.ws.VectorSetConstant(self.ws.surface_scalar_reflectivity, 1, 0.0)
self.ws.Copy(
self.ws.surface_rtprop_agenda,
self.ws.
surface_rtprop_agenda__Specular_NoPol_ReflFix_SurfTFromt_surface,
)
# Read lookup table
abs_lookup = os.getenv("KONRAD_LOOKUP_TABLE",
join(dirname(__file__), "data/abs_lookup.xml"))
if not isfile(abs_lookup):
raise FileNotFoundError(
"Could not find ARTS absorption lookup table.\n"
"To perform ARTS calculations you have to download the lookup "
"table at:\n\n https://doi.org/10.5281/zenodo.3885410\n\n"
"Afterwards, use the following environment variable to tell "
"konrad where to find it:\n\n"
" $ export KONRAD_LOOKUP_TABLE='/path/to/abs_lookup.xml'")
self.ws.ReadXML(self.ws.abs_lookup, abs_lookup)
self.ws.f_gridFromGasAbsLookup()
self.ws.abs_lookupAdapt()
# Sensor settings
self.ws.sensorOff() # No sensor properties
# Atmosphere
self.ws.AtmosphereSet1D()
# Set number of OMP threads
if threads is not None:
self.ws.SetNumberOfThreads(threads)
from pyarts.workspace import Workspace
from pyarts.classes.Vector import Vector
from pyarts.classes.Matrix import Matrix
from pyarts.classes.MCAntenna import MCAntenna
from pyarts.classes import from_workspace
ws = Workspace()
mca = MCAntenna()
mca.type = 1
mca.type = 2
mca.type = 3
mca.sigma_aa = 4.5
mca.sigma_za = 4.5
mca.aa_grid = Vector([1, 2, 3, 4])
mca.za_grid = Vector([1, 2, 3, 4, 5])
mca.g_lookup = Matrix([[5, 6, 7, 8], [5, 6, 7, 8], [5, 6, 7, 8], [5, 6, 7, 8],
[5, 6, 7, 8]])
mca2 = from_workspace(ws.mc_antenna)
mca2.set(mca)
assert mca2 == mca
# mca3 = MCAntenna()
# mca.savexml("tmp.mca.xml", "binary")
# mca3.readxml("tmp.mca.xml")
# assert mca3 == mca
ws.atmgeom_checkedCalc()
ws.cloudbox_checkedCalc()
ws.sensor_checkedCalc()
ws.yCalc()
ws.Copy(ws.ybatch_calc_agenda, ybatch_calc_agenda)
ws.IndexSet(ws.ybatch_start, 0)
ws.IndexSet(ws.ybatch_n, 1) # Amount of atmospheres
ws.ybatchCalc() # conduct the forward simulation
return ws
# test for ybatch
def test_ybatch(ws):
ybatch_ref = np.array([256.9629541])
assert np.allclose(ws.ybatch.value[0], ybatch_ref)
# test for ybatch_jacobians
def test_ybatch_jacobians(ws):
ybatch_jacobians_ref = np.array([[3.38652849e-6]])
assert np.allclose(ws.ybatch_jacobians.value[0], ybatch_jacobians_ref, atol=1e-12)
if __name__ == '__main__':
ws = Workspace(verbosity=2)
ws = setup_testcase(ws)
test_ybatch(ws)
test_ybatch_jacobians(ws)
print('SurfaceBlackbody tests passed.')
import os
from pyarts.workspace import Workspace
from pyarts.classes.ScatteringMetaData import ScatteringMetaData
from pyarts.classes.SingleScatteringData import SingleScatteringData
from pyarts.classes import from_workspace
# Get a workspace
ws = Workspace()
datapath = "../../arts-xml-data/" if not os.getenv("ARTS_XML_DATA_DIR") else os.getenv("ARTS_XML_DATA_DIR")
fn1 = os.path.join(datapath, 'scattering/H2O_ice/MieSphere_R1.00000e+00um.meta.xml')
fn2 = os.path.join(datapath, 'scattering/H2O_ice/MieSphere_R1.00000e+00um.xml')
smd1 = ScatteringMetaData()
smd1.readxml(fn1)
smd2 = from_workspace(ws.scat_meta_single)
ws.ReadXML(ws.scat_meta_single, fn1)
smd3 = ScatteringMetaData()
smd3.set(smd2)
assert smd1 == smd2
assert smd1 == smd3
ssd1 = SingleScatteringData()
ssd1.readxml(fn2)
ssd2 = from_workspace(ws.scat_data_single)
ws.ReadXML(ws.scat_data_single, fn2)
ssd3 = SingleScatteringData()
ssd3.set(ssd2)
from pyarts.workspace import Workspace from pyarts.classes.QuantumIdentifier import QuantumIdentifier from pyarts.classes.RetrievalQuantity import RetrievalQuantity, ArrayOfRetrievalQuantity from pyarts.classes.SpeciesTag import SpeciesTag from pyarts.classes.Vector import ArrayOfVector from pyarts.classes import from_workspace # Get a workspace ws = Workspace() ws.jacobianInit() ws.atmosphere_dim = 3 p = from_workspace(ws.p_grid) lat = from_workspace(ws.lat_grid) lon = from_workspace(ws.lon_grid) p.data = [3, 2, 1] lat.data = [1, 2, 3, 4] lon.data = [1, 2, 3, 4, 5] ws.jacobianAddTemperature(g1=p.data, g2=lat.data, g3=lon.data) arq = from_workspace(ws.jacobian_quantities) rq = RetrievalQuantity() rq.maintag = "" rq.subtag = "HSE on" rq.subsubtag = "" rq.mode = "" rq.analytical = 1 rq.target.type = "Atm" rq.target.subtype = "Temperature" rq.target.perturbation = 0.1 rq.grids = ArrayOfVector([p, lat, lon])
from math import isclose
from pyarts.workspace import Workspace
from pyarts.classes.Time import Time
from pyarts.classes import from_workspace
ws = Workspace()
ws.create_variable("Time", "start")
ws.create_variable("Time", "end")
ws.create_variable("Time", "time")
ws.create_variable("Numeric", "dt")
start_time = from_workspace(ws.start)
end_time = from_workspace(ws.end)
cur_time = from_workspace(ws.time)
dt = from_workspace(ws.dt)
# Test Now and Sleep
ws.timeNow(ws.start)
ws.Sleep(1)
ws.timeNow(ws.end)
ws.Duration(ws.dt, ws.start, ws.end)
assert dt >= 1, \
f"Slept for one second but duration was less: {float(dt):.3f} s"
# Test SleepUntil
ws.timeNow(ws.start)
end_time.sec = start_time.sec + 1
ws.timeSleep(ws.end)
ws.timeNow(ws.time)
duration = cur_time.sec - start_time.sec
assert duration >= 1, \
class TestMethods:
"""
Tests the calling of ARTS workspace methods.
"""
def setup_method(self):
"""
This ensures a new Workspace for every test.
"""
self.ws = Workspace(verbosity=0)
self.setup_workspace()
def setup_workspace(self):
self.ws.execute_controlfile(
"artscomponents/clearsky/TestClearSky.arts")
def test_mixed_arguments(self):
"""
Check that this raises a syntax error.
"""
ws = self.ws
with pytest.raises(SyntaxError):
ws.yCalc(ws.yf, y_f=ws.y_f)
def test_unexpected_argument(self):
"""
Providing a named argument with a name that is not actually an argument
of the WSM should raise an error.
"""
ws = self.ws
with pytest.raises(Exception):
ws.yCalc(nonsense=ws.y_f)
def test_override_output(self):
"""
Test overriding of output parameters in the two possible
ways.
"""
ws = self.ws
y_ref = np.copy(ws.y.value)
ws.yf = np.zeros(y_ref.size)
ws.yCalc(ws.yf)
assert (np.allclose(ws.yf.value, y_ref))
ws.yf = np.zeros(y_ref.size)
ws.yCalc(y=ws.yf)
assert (np.allclose(ws.yf.value, y_ref))
def test_override_input(self):
"""
Test overriding of input parameters in the two possible ways.
atmgeom_checked WSV is set to zero so that both calculations
should fail if input is not overridden.
"""
ws = self.ws
ws.atmgeom_checked = 0
ws.rte_pos = np.array([600e3, 0, 0])
ws.rte_pos2 = np.array([600e3, 0])
ws.rte_los = np.array([180.0, 0])
ws.ppathCalc(ws.ppath, ws.ppath_agenda, ws.ppath_lmax,
ws.ppath_lraytrace, 1)
ws.ppathCalc(atmgeom_checked=1)
def test_generic_input(self):
"""
Test overriding of generic input in the two possible ways.
"""
ws = self.ws
species = ([
"H2O-SelfContStandardType, H2O-ForeignContStandardType, H2O",
"N2-SelfContStandardType", "O3"
])
ws.ArrayOfArrayOfSpeciesTagCreate("abs_species_2")
ws.abs_speciesSet(ws.abs_species_2, ws.abs_xsec_agenda_checked,
ws.propmat_clearsky_agenda_checked, species)
ws.ArrayOfArrayOfSpeciesTagCreate("abs_species_3")
ws.abs_speciesSet(abs_species=ws.abs_species_3, species=species)
assert (ws.abs_species_2.value == ws.abs_species_3.value)
def test_generic_output(self):
"""
Test overriding of generic input in the two possible ways.
"""
ws = self.ws
tempfile = NamedTemporaryFile()
mat = np.ones((2, 2))
ws.sensor_los = np.ones((2, 2))
ws.WriteXML("ascii", ws.sensor_los, tempfile.name)
ws.sensor_los = np.zeros((2, 2))
ws.ReadXML(ws.sensor_los, tempfile.name)
assert (np.allclose(mat, ws.sensor_los.value))
ws.sensor_los = np.zeros((2, 2))
ws.ReadXML(out=ws.sensor_los, filename=tempfile.name)
assert (np.allclose(mat, ws.sensor_los.value))
def test_supergeneric_overload_resolution(self):
"""
Test resolution of supergeneric methods.
"""
self.ws.ArrayOfIndexCreate("array_of_index")
self.ws.ArrayOfArrayOfIndexCreate("array_of_array_of_index")
self.ws.array_of_index = [1, 2, 3]
self.ws.Append(self.ws.array_of_array_of_index, self.ws.array_of_index)
self.ws.Append(self.ws.array_of_array_of_index, self.ws.array_of_index)
def test_supergeneric_overload_failure(self):
"""
Test expected failure of supergeneric overload resolution.
"""
with pytest.raises(Exception):
self.ws.NumericCreate("numeric_wsv")
self.ws.StringCreate("string_wsv")
self.ws.Copy(self.ws.string_wsv, self.ws.numeric_wsv)
def test_wsm_error(self):
"""
Test error handling from ARTS WSMs.
"""
with pytest.raises(Exception):
ws.atmgeom_checked = 0
self.ws.yCalc()
from pyarts.workspace import Workspace
from pyarts.classes.SpeciesTag import SpeciesTag, ArrayOfArrayOfSpeciesTag
from pyarts.classes import from_workspace
# Get a workspace
ws = Workspace()
aast = from_workspace(ws.abs_species)
st = SpeciesTag("H2O-161")
ws.abs_speciesSet(species=["H2O-161"])
aast.size = 2
aast[1].size = 1
aast[1][0].set(aast[0][0])
assert st == aast[0][0]
assert st == aast[1][0]
aast.savexml("tmp.aast.xml", "binary")
aast2 = ArrayOfArrayOfSpeciesTag()
aast2.readxml("tmp.aast.xml")
assert aast == aast2
from pyarts.workspace import Workspace
ws = Workspace()
ws.StringCreate("mystring")
ws.StringSet(ws.mystring, "Hello World!")
ws.Print(ws.mystring, 0)
class TestWorkspace:
def setup_method(self):
"""This ensures a new Workspace for every test."""
self.dir = os.path.dirname(os.path.realpath(__file__))
self.ws = Workspace()
self.setup_workspace()
def setup_workspace(self):
ws = self.ws
ws.atmosphere_dim = 1
ws.p_grid = np.linspace(1e5, 1e3, 21)
ws.Touch(ws.lat_grid)
ws.Touch(ws.lon_grid)
ws.f_grid = 183.0e9 * np.ones(1)
ws.stokes_dim = 1
ws.sensor_los = 180.0 * np.ones((1, 1))
ws.sensor_pos = 830e3 * np.ones((1, 1))
ws.sensorOff()
def test_execute_controlfile(self):
dir = os.path.dirname(os.path.realpath(__file__))
test_dir = os.path.join(dir, "test_files")
self.ws.WriteXML("ascii", np.array([1.0]),
os.path.join(test_dir, "vector.xml"))
os.chdir(test_dir)
self.ws.execute_controlfile("controlfile.arts")
os.remove(os.path.join(test_dir, "vector.xml"))
def test_execute_controlfile(self):
dir = os.path.dirname(os.path.realpath(__file__))
test_dir = os.path.join(dir, "test_files")
self.ws.WriteXML("ascii", np.array([1.0]),
os.path.join(test_dir, "vector.xml"))
os.chdir(test_dir)
agenda = self.ws.execute_controlfile("controlfile.arts")
self.ws.foo = "not bar"
@arts_agenda
def execute(ws):
ws.FlagOff(ws.jacobian_do)
ws.StringSet(ws.foo, "still not bar")
INCLUDE("controlfile.arts")
INCLUDE(agenda)
self.ws.execute_agenda(execute)
assert self.ws.foo.value == "bar"
os.remove(os.path.join(test_dir, "vector.xml"))
def test_wsv_setattr(self):
wsv = self.ws.atmosphere_dim
wsv.value = 12
assert self.ws.atmosphere_dim.value == 12
def test_callbacks(self):
@arts_agenda
def agenda(ws):
"""
This agenda sets a workspace variable in a very
obscure way.
"""
class Foo:
def __init__(self, ws):
self.ws = ws
def ooo(self):
self.ws.IndexSet(ws.stokes_dim, 42)
foo = Foo(ws)
ws.IndexSet(ws.stokes_dim, 21)
foo.ooo()
agenda.execute(self.ws)
assert self.ws.stokes_dim.value == 42
def test_contiguous_arrays(self):
x = np.linspace(0, 1, 256)
xf = np.asarray(x, order='F')
self.ws.f_grid = xf
assert np.array_equal(self.ws.f_grid.value, xf)
self.ws.f_grid = x[::2]
assert np.array_equal(self.ws.f_grid.value, x[::2])
self.ws.f_grid = np.ascontiguousarray(x[::2])
assert np.array_equal(self.ws.f_grid.value, x[::2])
def test_name_collision(self):
self.ws.VectorSetConstant(self.ws.f_grid, 10, 1.)
self.ws.VectorCreate("np")
f_grid = self.ws.f_grid.value
assert np.all(np.isclose(f_grid, np.ones(10)))
from pyarts.workspace import Workspace from pyarts.classes.Ppath import Ppath from pyarts.classes import from_workspace # Get a workspace ws = Workspace() ws.atmosphere_dim = 1 ws.cloudbox_on = 0 ws.ppath_inside_cloudbox_do = 0 cloudbox_limits = from_workspace(ws.cloudbox_limits) z_field = from_workspace(ws.z_field) z_field.data = [0, 1, 2, 3] z_field.data = z_field.data.reshape(4, 1, 1) z_surface = from_workspace(ws.z_surface) z_surface.data = [0] rte_pos = from_workspace(ws.rte_pos) rte_pos.data = [4] rte_los = from_workspace(ws.rte_los) rte_los.data = [91] ws.ppath_lmax = 0.1 ws.ppathPlaneParallel() # Get the path path = from_workspace(ws.ppath) path2 = Ppath() path2.set(path) assert isinstance(path, Ppath), "Bad read" assert path, "Bad read" assert path2 == path
class _ARTS:
def __init__(self,
ws=None,
threads=None,
nstreams=4,
scale_vmr=True,
verbosity=0):
"""Initialize a wrapper for an ARTS workspace.
Parameters:
ws (pyarts.workspace.Workspace): An ARTS workspace.
threads (int): Number of threads to use.
Default is all available threads.
nstreams (int): Number of viewing angles to base the radiative
flux calculation on.
scale_vmr (bool): Control whether dry volume mixing ratios are
scaled with the water-vapor concentration (default is `False.`)
verbosity (int): Control the ARTS verbosity from 0 (quiet) to 2.
"""
from pyarts.workspace import Workspace, arts_agenda
self.nstreams = nstreams
self.scale_vmr = scale_vmr
if ws is None:
self.ws = Workspace(verbosity=verbosity)
self.ws.execute_controlfile("general/general.arts")
self.ws.execute_controlfile("general/continua.arts")
self.ws.execute_controlfile("general/agendas.arts")
self.ws.execute_controlfile("general/planet_earth.arts")
# Agenda settings
self.ws.Copy(self.ws.abs_xsec_agenda, self.ws.abs_xsec_agenda__noCIA)
self.ws.Copy(self.ws.iy_main_agenda, self.ws.iy_main_agenda__Emission)
self.ws.Copy(self.ws.iy_space_agenda,
self.ws.iy_space_agenda__CosmicBackground)
self.ws.Copy(self.ws.iy_surface_agenda,
self.ws.iy_surface_agenda__UseSurfaceRtprop)
self.ws.Copy(
self.ws.propmat_clearsky_agenda,
self.ws.propmat_clearsky_agenda__LookUpTable,
)
self.ws.Copy(self.ws.ppath_agenda,
self.ws.ppath_agenda__FollowSensorLosPath)
self.ws.Copy(self.ws.ppath_step_agenda,
self.ws.ppath_step_agenda__GeometricPath)
@arts_agenda
def p_eq_agenda(workspace):
workspace.water_p_eq_fieldMK05()
self.ws.Copy(self.ws.water_p_eq_agenda, p_eq_agenda)
@arts_agenda
def cloudbox_agenda(workspace):
workspace.iyInterpCloudboxField()
self.ws.Copy(self.ws.iy_cloudbox_agenda, cloudbox_agenda)
# Number of Stokes components to be computed
self.ws.IndexSet(self.ws.stokes_dim, 1)
self.ws.jacobianOff() # No jacobian calculation
self.ws.cloudboxOff() # Clearsky = No scattering
# Set Absorption Species
self.ws.abs_speciesSet(species=[
"O2, O2-CIAfunCKDMT100",
"H2O, H2O-SelfContCKDMT252, H2O-ForeignContCKDMT252",
"O3",
"CO2, CO2-CKDMT252",
"N2, N2-CIAfunCKDMT252, N2-CIArotCKDMT252",
"N2O",
"CH4",
"CO",
])
# Surface handling
self.ws.VectorSetConstant(self.ws.surface_scalar_reflectivity, 1, 0.0)
self.ws.Copy(
self.ws.surface_rtprop_agenda,
self.ws.
surface_rtprop_agenda__Specular_NoPol_ReflFix_SurfTFromt_surface,
)
# Read lookup table
abs_lookup = os.getenv("KONRAD_LOOKUP_TABLE",
join(dirname(__file__), "data/abs_lookup.xml"))
if not isfile(abs_lookup):
raise FileNotFoundError(
"Could not find ARTS absorption lookup table.\n"
"To perform ARTS calculations you have to download the lookup "
"table at:\n\n https://doi.org/10.5281/zenodo.3885410\n\n"
"Afterwards, use the following environment variable to tell "
"konrad where to find it:\n\n"
" $ export KONRAD_LOOKUP_TABLE='/path/to/abs_lookup.xml'")
self.ws.ReadXML(self.ws.abs_lookup, abs_lookup)
self.ws.f_gridFromGasAbsLookup()
self.ws.abs_lookupAdapt()
# Sensor settings
self.ws.sensorOff() # No sensor properties
# Atmosphere
self.ws.AtmosphereSet1D()
# Set number of OMP threads
if threads is not None:
self.ws.SetNumberOfThreads(threads)
def calc_lookup_table(self, filename=None, fnum=2**15, wavenumber=None):
"""Calculate an absorption lookup table.
The lookup table is constructed to cover surface temperatures
between 200 and 400 K, and water vapor mixing ratio up to 40%.
The frequency grid covers the whole outgoing longwave spectrum
from 10 to 3,250 cm^-1.
References:
An absorption lookup table can be found at
https://doi.org/10.5281/zenodo.3885410
Parameters:
filename (str): (Optional) path to an ARTS XML file
to store the lookup table.
fnum (int): Number of frequencies in frequency grid.
Ignored if `wavenumber` is set.
wavenumber (ndarray): Wavenumber grid [m-1].
"""
# Create a frequency grid
if wavenumber is None:
wavenumber = np.linspace(10e2, 3_250e2, fnum)
self.ws.f_grid = ty.physics.wavenumber2frequency(wavenumber)
# Read line catagloge and create absorption lines.
self.ws.ReadSplitARTSCAT(
abs_lines=self.ws.abs_lines,
abs_species=self.ws.abs_species,
basename="hitran_split_artscat5/",
fmin=0.0,
fmax=1e99,
globalquantumnumbers="",
localquantumnumbers="",
ignore_missing=0,
)
# Set line shape and cut off.
self.ws.abs_linesSetLineShapeType(self.ws.abs_lines, "VP")
self.ws.abs_linesSetNormalization(self.ws.abs_lines, "VVH")
self.ws.abs_linesSetCutoff(self.ws.abs_lines, "ByLine", 750e9)
self.ws.abs_lines_per_speciesCreateFromLines()
self.ws.abs_lines_per_speciesCompact()
# Create a standard atmosphere
p_grid = get_quadratic_pgrid(1_200e2, 0.5, 80)
atmosphere = Atmosphere(p_grid)
atmosphere["T"][
-1, :] = 300.0 + 5.0 * np.log(atmosphere["plev"] / 1000e2)
atmosphere.tracegases_rcemip()
atmosphere["O2"][:] = 0.2095
atmosphere["CO2"][:] = 1.5 * 348e-6
h2o = 0.01 * (p_grid / 1000e2)**0.2
atmosphere["H2O"][:] = h2o[:-1]
# Convert the konrad atmosphere into an ARTS atm_fields_compact.
atm_fields_compact = atmosphere.to_atm_fields_compact()
self.ws.atm_fields_compact = atm_fields_compact
self.ws.atm_fields_compactAddConstant(
atm_fields_compact=self.ws.atm_fields_compact,
name="abs_species-N2",
value=0.7808,
condensibles=["abs_species-H2O"],
)
# Setup the lookup table calculation
self.ws.AtmFieldsAndParticleBulkPropFieldFromCompact()
self.ws.vmr_field.value = self.ws.vmr_field.value.clip(min=0.0)
self.ws.atmfields_checkedCalc()
self.ws.abs_lookupSetup(p_step=1.0) # Do not refine p_grid
self.ws.abs_t_pert = np.arange(-160, 61, 20)
nls_idx = [
i for i, tag in enumerate(self.ws.abs_species.value)
if "H2O" in tag[0]
]
self.ws.abs_speciesSet(
abs_species=self.ws.abs_nls,
species=[", ".join(self.ws.abs_species.value[nls_idx[0]])],
)
self.ws.abs_nls_pert = np.array(
[10**x for x in [-9, -7, -5, -3, -1, 0, 0.5, 1, 1.5, 2]])
# Run checks
self.ws.abs_xsec_agenda_checkedCalc()
self.ws.lbl_checkedCalc()
# Calculate actual lookup table.
self.ws.abs_lookupCalc()
if filename is not None:
self.ws.WriteXML("binary", self.ws.abs_lookup, filename)
def set_atmospheric_state(self, atmosphere, t_surface):
"""Set and check the atmospheric fields."""
import pyarts
atm_fields_compact = atmosphere.to_atm_fields_compact()
# Scale dry-air VMRs with H2O and CO2 content.
if self.scale_vmr:
variable_vmrs = (atm_fields_compact.get("abs_species-H2O")[0] +
atm_fields_compact.get("abs_species-CO2")[0])
else:
t3_shape = atm_fields_compact.get("abs_species-H2O")[0].shape
variable_vmrs = np.zeros(t3_shape)
for species in atm_fields_compact.grids[0]:
if (species.startswith("abs_species-") and "H2O" not in species
and "CO2" not in species):
atm_fields_compact.scale(species, 1 - variable_vmrs)
# Compute the N2 VMR as a residual of the full atmosphere composition.
n2 = pyarts.types.GriddedField3(
grids=atm_fields_compact.grids[1:],
data=0.7808 * (1 - variable_vmrs),
)
self.ws.atm_fields_compact = atm_fields_compact
self.ws.atm_fields_compactAddSpecies(
atm_fields_compact=self.ws.atm_fields_compact,
name="abs_species-N2",
value=n2,
)
self.ws.AtmFieldsAndParticleBulkPropFieldFromCompact()
self.ws.vmr_field = self.ws.vmr_field.value.clip(min=0)
# Surface & TOA
# Add pressure layers to the surface and top-of-the-atmosphere to
# ensure consistent atmosphere boundaries between ARTS and RRTMG.
self.ws.t_surface = np.array([[t_surface]])
self.ws.z_surface = np.array([[0.0]])
self.ws.z_field.value[0, 0, 0] = 0.0
# Perform configuration and atmosphere checks
self.ws.atmfields_checkedCalc()
self.ws.propmat_clearsky_agenda_checkedCalc()
self.ws.atmgeom_checkedCalc()
self.ws.cloudbox_checkedCalc()
def calc_spectral_irradiance_field(self, atmosphere, t_surface):
"""Calculate the spectral irradiance field."""
self.set_atmospheric_state(atmosphere, t_surface)
# get the zenith angle grid and the integrations weights
self.ws.AngularGridsSetFluxCalc(N_za_grid=self.nstreams,
N_aa_grid=1,
za_grid_type="double_gauss")
# calculate intensity field
self.ws.Tensor3Create("trans_field")
self.ws.spectral_radiance_fieldClearskyPlaneParallel(
trans_field=self.ws.trans_field,
use_parallel_za=0,
)
self.ws.spectral_irradiance_fieldFromSpectralRadianceField()
return (
self.ws.f_grid.value.copy(),
self.ws.p_grid.value.copy(),
self.ws.spectral_irradiance_field.value.copy(),
self.ws.trans_field.value[:, 1:, 0].copy().prod(axis=1),
)
def calc_optical_thickness(self, atmosphere, t_surface):
"""Calculate the spectral irradiance field."""
self.set_atmospheric_state(atmosphere, t_surface)
self.ws.propmat_clearsky_fieldCalc()
tau = np.trapz(
y=self.ws.propmat_clearsky_field.value[:, :, 0, 0, :, 0, 0],
x=self.ws.z_field.value[:, 0, 0],
axis=-1,
)
return self.ws.f_grid.value.copy(), tau
@staticmethod
def integrate_spectral_irradiance(frequency, irradiance):
"""Integrate the spectral irradiance field over the frequency.
Parameters:
frequency (ndarray): Frequency [Hz].
irradiance (ndarray): Spectral irradiance [W m^-2 / Hz].
Returns:
ndarray, ndarray: Downward flux, upward, flux [W m^-2]
"""
F = np.trapz(irradiance, frequency, axis=0)[:, 0, 0, :]
# Fluxes
lw_down = -F[:, 0]
lw_up = F[:, 1]
return lw_down, lw_up
def calc_spectral_olr(self, atmosphere, surface):
"""Calculate the outgoing longwave radiation as function of wavenumber.
Parameters:
atmosphere (konrad.atmosphere.Atmosphere): Atmosphere model.
surface (konrad.surface.Surface): Surface model.
Returns:
ndarray: Outgoing longwave radiation [W m^-2 / cm^-1]
"""
f, _, irradiance_field, _ = self.calc_spectral_irradiance_field(
atmosphere=atmosphere, t_surface=surface["temperature"][0])
return f, irradiance_field[:, -1, 0, 0, 1]
"""
Surface
=======
"""
import numpy as np
from pyarts.workspace import Workspace, arts_agenda
ws = Workspace()
ws.NumericCreate("surface_temperature")
ws.NumericCreate("surface_salinity")
ws.NumericCreate("surface_windspeed")
from artssat.atmosphere.surface.surface import Tessem, Telsem, CombinedSurface
"""
The surface sub-module provides implementations of the different surface models
that are available in ARTS.
"""
from abc import abstractmethod, abstractproperty
import numpy as np
import os
from artssat.arts_object import ArtsObject, arts_property, Dimension
from pyarts.workspace import Workspace, arts_agenda
from pyarts.workspace.variables import (WorkspaceVariable, workspace_variables)
wsv = workspace_variables
ws = Workspace(verbosity = 0)
class Surface:
"""
Abstract base class for surfaces.
This class defines the general interfaces for surface models in artssat.
"""
@abstractproperty
def required_data(self):
pass
@abstractmethod
def setup(self, ws):
"""
Setup the surface model in the given workspace.
class ActiveSensor(Sensor):
"""
Specialization of the abstract :code:`Sensor` class that implements
active sensors (Radar).
"""
ws = Workspace()
extinction_scaling = ws.create_variable("Numeric", "extinction_scaling")
private_wsvs = Sensor.private_wsvs + [
"range_bins", "instrument_pol_array", "instrument_pol",
"iy_transmitter_agenda", "extinction_scaling"
]
############################################################################
# ARTS properties
############################################################################
@arts_property("Numeric", wsv="extinction_scaling")
def extinction_scaling(self):
return 1.0
@arts_property("Numeric")
def k2(self):
return -1.0
@arts_property("Numeric")
def y_min(self):
return -35.0
@arts_property("Vector", shape=(dim.Joker, ), wsv=wsv["range_bins"])
def range_bins(self):
return []
@arts_property("ArrayOfIndex", wsv=wsv["instrument_pol"])
def instrument_pol(self):
return [1]
@arts_property("ArrayOfArrayOfIndex", wsv=wsv["instrument_pol_array"])
def instrument_pol_array(self):
return [[1]]
@property
def y_vector_length(self):
return (self.range_bins.size -
1) * self.f_grid.size * self.stokes_dimension
def __init__(self, name, f_grid, stokes_dimension, range_bins=None):
super().__init__(name, f_grid, stokes_dimension=stokes_dimension)
self.iy_unit = "dBZe"
if not range_bins is None:
self.range_bins = range_bins
#
# Agendas
#
@property
def iy_transmitter_agenda(self):
"""
The :code:`iy_transmitter_agenda` which is required for active
sensors. Input arguments of :code:`iy_transmitter_agenda` are
replaced by the private workspace variables of the sensor.
Returns:
The iy_transmitter_agenda for the active sensor.
"""
kwargs = self.get_wsm_kwargs(wsm["iy_transmitterSinglePol"])
@arts_agenda
def iy_transmitter_agenda(ws):
ws.Ignore(ws.rtp_pos)
ws.Ignore(ws.rtp_los)
ws.Ignore(ws.f_grid)
ws.iy_transmitterSinglePol(**kwargs)
return iy_transmitter_agenda
def make_iy_main_agenda(self, scattering=False):
"""
The :code: `iy_main_agenda` for active sensor. Currently uses
the single scattering radar module, but might be extended
at some point.
"""
kwargs = self.get_wsm_kwargs(wsm["iyActiveSingleScat2"])
@arts_agenda
def iy_main_agenda(ws):
ws.Ignore(ws.iy_id)
ws.Ignore(ws.nlte_field)
ws.Ignore(ws.rte_pos2)
ws.Ignore(ws.iy_unit)
ws.Ignore(ws.iy_aux_vars)
ws.FlagOff(ws.cloudbox_on)
ws.ppathCalc()
ws.FlagOn(ws.cloudbox_on)
ws.iyActiveSingleScat(
**kwargs,
pext_scaling=self._wsvs["extinction_scaling"],
trans_in_jacobian=1)
return iy_main_agenda
#
# Specialized setters
#
def iy_unit_setter(self, u):
if not u in ["1", "Ze", "dBZe"]:
raise Exception("Value of iy_unit for an active sensor must"
" be one of ['1', 'Ze', 'dBZe']")
else:
self._iy_unit.value = u
self._iy_unit.fixed = True
def iy_aux_vars_setter(self, v):
if not type(v) == list:
v = [v]
if not all([
u in [
"Radiative background", "Backsacttering", "Optical depth",
"Particle extinction"
] for u in v
]):
raise Exception("Value of iy_aux_vars for an active sensor must"
" be a list consisting of the following strings: "
"['RadiativeBackground', 'Backscattering', "
"'Optical depth', Particle extinction'].")
else:
self._iy_aux_vars.value = v
self._iy_aux_vars.fixed = False
#
# Preparation and y_calc factories.
#
def make_preparation_function(self):
"""
Return the workspace preparation function, which prepares
a workspace for simulating the signal recorded by the sensor.
Returns:
The function to prepare the workspace.
"""
def preparations(ws):
ws.IndexSet(ws.stokes_dim, self.stokes_dimension)
#ws.Copy(ws.iy_transmitter_agenda,
# self._wsvs["iy_transmitter_agenda"])
#ws.Copy(ws.iy_main_agenda,
# self._wsvs["_iy_main_agenda"])
#ws.Copy(ws.instrument_pol, self._wsvs["instrument_pol"])
#ws.IndexSet(self._wsvs["_stokes_dim"], self.stokes_dimension)
#ws.IndexSet(ws.stokes_dim, self.stokes_dimension)
return preparations
def make_y_calc_function(self, append=False, scattering=False):
"""
Returns y_calc function, which computes the radar signal
on an accordingly prepared workspace. This function can
be converted into an ARTS agenda and thus included in
the other agendas using the INCLUDE statement.
Returns:
The function to compute the radar signal.
"""
if append:
raise Exception("ARTS doesn't support appending measurements from"
" active sensors.")
kwargs = self.get_wsm_kwargs(wsm["yActive"])
if self.y_min:
y_min = self.y_min
else:
y_min = -np.inf
def y_calc(ws):
ws.yActive(dbze_min=y_min, k2=self.k2, **kwargs)
return y_calc
#
# Setup
#
def setup(self, ws, scattering=True):
super().setup(ws, scattering)
self._wsvs["iy_transmitter_agenda"].value = self.iy_transmitter_agenda
from pyarts.workspace import Workspace
from pyarts.classes.EnergyLevelMap import EnergyLevelMap
from pyarts.classes import from_workspace
# Get a workspace
ws = Workspace()
datapath = "../"
elm1 = EnergyLevelMap()
elm1.readxml(datapath +
"controlfiles/artscomponents/nlte/testdata/nlte_testdata.xml")
ws.ReadXML(
ws.nlte_field,
datapath + "controlfiles/artscomponents/nlte/testdata/nlte_testdata.xml")
elm2 = from_workspace(ws.nlte_field)
assert elm1, "Bad read"
assert elm1 == elm2, "Bad read"
assert elm1.data
elm3 = EnergyLevelMap()
elm3.set(elm1)
assert elm3 == elm2
elm4 = EnergyLevelMap()
elm1.savexml("tmp.elm.xml", "binary")
elm4.readxml("tmp.elm.xml")
assert elm4 == elm1
import os
from pyarts.workspace import Workspace
from pyarts.classes.CIARecord import CIARecord, ArrayOfCIARecord
from pyarts.classes import from_workspace
# Get a workspace
ws = Workspace()
datapath = "../../arts-xml-data/" if not os.getenv(
"ARTS_XML_DATA_DIR") else os.getenv("ARTS_XML_DATA_DIR")
fn = os.path.join(datapath,
"spectroscopy/cia/borysow/Borysow_CIA_JUICE_SWI.xml")
acr1 = ArrayOfCIARecord()
assert not acr1, "Bad init"
acr1.readxml(fn)
ws.ReadXML(ws.abs_cia_data, fn)
acr2 = from_workspace(ws.abs_cia_data)
assert acr1, "Bad read"
assert acr1 == acr2, "Bad read"
assert isinstance(acr1[0], CIARecord), "Bad type"
acr3 = ArrayOfCIARecord()
acr3.set(acr1)
assert acr1 == acr3, "Bad read"
acr1.savexml("tmp.acr.xml", "binary")
acr3 = ArrayOfCIARecord()
acr3.readxml("tmp.acr.xml")
