# Copyright (C) 2023 - 2024 ANSYS, Inc. and/or its affiliates.
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from collections import OrderedDict
import math
import ansys.aedt.core.generic.constants as constants
from ansys.aedt.core.generic.general_methods import pyaedt_function_handler
from ansys.aedt.toolkits.common.backend.logger_handler import logger
from ansys.aedt.toolkits.antenna.backend.antenna_models.common import CommonAntenna
class CommonConicalSpiral(CommonAntenna):
"""Provides base methods common to conical spiral antenna."""
def __init__(self, _default_input_parameters, *args, **kwargs):
CommonAntenna.antenna_type = "ConicalSpiral"
CommonAntenna.__init__(self, _default_input_parameters, *args, **kwargs)
@property
def material(self):
"""Horn material.
Returns
-------
str
"""
return self._input_parameters.material
@material.setter
def material(self, value):
if self._app:
if (
value
and value not in self._app.materials.mat_names_aedt
and value not in self._app.materials.mat_names_aedt_lower
):
logger.debug("Material not defined")
else:
if value != self.material and self.object_list:
for antenna_obj in self.object_list:
if (
self.object_list[antenna_obj].material_name == self.material.lower()
and "port_cap" not in antenna_obj
):
self.object_list[antenna_obj].material_name = value
self._input_parameters.material = value
parameters = self.synthesis()
self.update_synthesis_parameters(parameters)
self.set_variables_in_hfss()
else:
self._input_parameters.material = value
@property
def frequency(self):
"""Central frequency.
Returns
-------
float
"""
return (self.stop_frequency - self.start_frequency) / 2.0 + self.start_frequency
@property
def start_frequency(self):
"""Start frequency.
Returns
-------
float
"""
return self._input_parameters.start_frequency
@start_frequency.setter
def start_frequency(self, value):
self._input_parameters.start_frequency = value
parameters = self.synthesis()
self.update_synthesis_parameters(parameters)
if self.object_list:
self.set_variables_in_hfss()
@property
def stop_frequency(self):
"""Stop frequency.
Returns
-------
float
"""
return self._input_parameters.stop_frequency
@stop_frequency.setter
def stop_frequency(self, value):
self._input_parameters.stop_frequency = value
parameters = self.synthesis()
self.update_synthesis_parameters(parameters)
if self.object_list:
self.set_variables_in_hfss()
@pyaedt_function_handler()
def synthesis(self):
pass
[docs]
class Archimedean(CommonConicalSpiral):
"""Manages conical archimedeal spiral antenna.
This class is accessible through the app hfss object [1]_.
Parameters
----------
frequency : float, optional
Center frequency. The default is ``10.0``.
frequency_unit : str, optional
Frequency units. The default is ``"GHz"``.
material : str, optional
Horn material. If a material is not defined, a new material, ``parametrized``, is defined.
The default is ``"pec"``.
outer_boundary : str, optional
Boundary type to use. The default is ``None``. Options are ``"FEBI"``, ``"PML"``,
``"Radiation"``, and ``None``.
length_unit : str, optional
Length units. The default is ``"mm"``.
parametrized : bool, optional
Whether to create a parametrized antenna. The default is ``True``.
Returns
-------
:class:`aedt.toolkits.antenna.Archimedean`
Conical archimedean spiral object.
Notes
-----
.. [1] R. Johnson, "Frequency Independent Antennas," Antenna Engineering Handbook,
3rd ed. New York, McGraw-Hill, 1993.
Examples
--------
>>> from ansys.aedt.core import Hfss
>>> from ansys.aedt.toolkits.antenna.backend.antenna_models.conical_spiral import Archimedean
>>> hfss = Hfss()
>>> antenna = Archimedean(hfss, start_frequency=20.0,
... stop_frequency=50.0, frequency_unit="GHz",
... outer_boundary='Radiation', length_unit="mm",
... antenna_name="Archimedean", origin=[1, 100, 50])
>>> antenna.model_hfss()
>>> antenna.setup_hfss()
>>> hfss.release_desktop(False, False)
"""
_default_input_parameters = {
"name": "",
"origin": [0, 0, 0],
"length_unit": "meter",
"coordinate_system": "Global",
"start_frequency": 4.0,
"stop_frequency": 10.0,
"frequency_unit": "GHz",
"material": "pec",
"outer_boundary": "",
}
def __init__(self, *args, **kwargs):
CommonConicalSpiral.__init__(self, self._default_input_parameters, *args, **kwargs)
self._parameters = self.synthesis()
self.update_synthesis_parameters(self._parameters)
self.antenna_type = "Archimedean"
[docs]
@pyaedt_function_handler()
def synthesis(self):
"""Antenna synthesis.
Returns
-------
dict
Analytical parameters.
"""
parameters = {}
lightSpeed = constants.SpeedOfLight
start_freq_hz = constants.unit_converter(self.start_frequency, "Freq", self.frequency_unit, "Hz")
stop_freq_hz = constants.unit_converter(self.stop_frequency, "Freq", self.frequency_unit, "Hz")
expansion_coefficient = 1.0
offset_angle = 90.0
spiral_coefficient = 1.0
points = 200
arms = 2
port_extension = 0.1
outer_rad_calc = lightSpeed / (2 * math.pi * start_freq_hz)
outer_rad_calc = constants.unit_converter(outer_rad_calc, "Length", "meter", self.length_unit)
outer_rad_calc_cm = constants.unit_converter(outer_rad_calc, "Length", self.length_unit, "cm")
inner_rad_calc = lightSpeed / (2 * math.pi * stop_freq_hz)
inner_rad = constants.unit_converter(inner_rad_calc, "Length", "meter", self.length_unit)
inner_rad_cm = constants.unit_converter(inner_rad, "Length", self.length_unit, "cm")
port_extension = constants.unit_converter(port_extension, "Length", "cm", self.length_unit)
parameters["expansion_coefficient"] = expansion_coefficient
parameters["offset_angle"] = offset_angle
parameters["spiral_coefficient"] = spiral_coefficient
parameters["inner_rad"] = round(inner_rad, 2)
parameters["turns_number"] = round((outer_rad_calc_cm - inner_rad_cm) / 2.0 / math.pi / 0.1, 2)
parameters["cone_height"] = round((outer_rad_calc - inner_rad) * math.tan(math.radians(66.66)), 2)
parameters["points"] = points
parameters["arms_number"] = arms
parameters["port_extension"] = port_extension
parameters["pos_x"] = self.origin[0]
parameters["pos_y"] = self.origin[1]
parameters["pos_z"] = self.origin[2]
myKeys = list(parameters.keys())
myKeys.sort()
parameters_out = OrderedDict([(i, parameters[i]) for i in myKeys])
return parameters_out
[docs]
@pyaedt_function_handler()
def model_hfss(self):
"""Draw a conical archimidean spiral antenna.
This method uses the user-defined model from the AEDT installation.
Once the antenna is created, this method is not used anymore.
"""
if self.object_list:
logger.debug("This antenna already exists")
return False
if (
self.material not in self._app.materials.mat_names_aedt
and self.material not in self._app.materials.mat_names_aedt_lower
):
self._app.logger.warning("Material not found. Create the material before assigning it.")
return False
self.set_variables_in_hfss()
# Map parameters
expansion_coefficient = self.synthesis_parameters.expansion_coefficient.hfss_variable
self._app[expansion_coefficient] = str(self.synthesis_parameters.expansion_coefficient.value)
offset_angle = self.synthesis_parameters.offset_angle.hfss_variable
self._app[offset_angle] = str(self.synthesis_parameters.offset_angle.value) + "deg"
spiral_coefficient = self.synthesis_parameters.spiral_coefficient.hfss_variable
self._app[spiral_coefficient] = str(self.synthesis_parameters.spiral_coefficient.value)
inner_rad = self.synthesis_parameters.inner_rad.hfss_variable
turns = self.synthesis_parameters.turns_number.hfss_variable
self._app[turns] = str(self.synthesis_parameters.turns_number.value)
cone_height = self.synthesis_parameters.cone_height.hfss_variable
arms = self.synthesis_parameters.arms_number.hfss_variable
self._app[arms] = str(self.synthesis_parameters.arms_number.value)
points = self.synthesis_parameters.points.hfss_variable
self._app[points] = str(self.synthesis_parameters.points.value)
port_extension = self.synthesis_parameters.port_extension.hfss_variable
pos_x = self.synthesis_parameters.pos_x.hfss_variable
pos_y = self.synthesis_parameters.pos_y.hfss_variable
pos_z = self.synthesis_parameters.pos_z.hfss_variable
antenna_name = self.name
coordinate_system = self.coordinate_system
my_udmPairs = []
mypair = ["NumberOfPoints", points]
my_udmPairs.append(mypair)
mypair = ["NumberOfArms", arms]
my_udmPairs.append(mypair)
mypair = ["InnerRadius", inner_rad]
my_udmPairs.append(mypair)
mypair = ["NumberOfTurns", turns]
my_udmPairs.append(mypair)
mypair = ["Offset", offset_angle]
my_udmPairs.append(mypair)
mypair = ["ConeHeight", cone_height]
my_udmPairs.append(mypair)
mypair = ["ExpansionCoefficient", expansion_coefficient]
my_udmPairs.append(mypair)
mypair = ["SpiralCoefficient", spiral_coefficient]
my_udmPairs.append(mypair)
mypair = ["Port_Extension", port_extension]
my_udmPairs.append(mypair)
obj_udm = self._app.modeler.create_udm(
udmfullname="HFSS/Antenna Toolkit/Spiral/Archimedean.py",
udm_params_list=my_udmPairs,
udm_library="syslib",
name="archimidean",
)
for part in obj_udm.parts:
comp = obj_udm.parts[part]
comp.history().props["Coordinate System"] = coordinate_system
if "AntennaArm" in comp.name:
comp.name = "ant_" + comp.name + antenna_name
else:
comp.name = "port_lump_" + antenna_name
self.object_list[comp.name] = comp
obj_udm.move([pos_x, pos_y, pos_z])
obj_udm.group_name = antenna_name
[docs]
@pyaedt_function_handler()
def model_disco(self):
"""Model in PyDiscovery. To be implemented."""
pass
[docs]
@pyaedt_function_handler()
def setup_disco(self):
"""Set up in PyDiscovery. To be implemented."""
pass
class Log(CommonConicalSpiral):
"""Manages conical log spiral antenna.
This class is accessible through the app hfss object [1]_.
Parameters
----------
frequency : float, optional
Center frequency. The default is ``10.0``.
frequency_unit : str, optional
Frequency units. The default is ``"GHz"``.
material : str, optional
Horn material. If a material is not defined, a new material, ``parametrized``, is defined.
The default is ``"pec"``.
outer_boundary : str, optional
Boundary type to use. The default is ``None``. Options are ``"FEBI"``, ``"PML"``,
``"Radiation"``, and ``None``.
length_unit : str, optional
Length units. The default is ``"mm"``.
parametrized : bool, optional
Whether to create a parametrized antenna. The default is ``True``.
Returns
-------
:class:`aedt.toolkits.antenna.Log`
Conical archimedean spiral object.
Notes
-----
.. [1] R. Johnson, "Frequency Independent Antennas," Antenna Engineering Handbook,
3rd ed. New York, McGraw-Hill, 1993.
Examples
--------
>>> from ansys.aedt.core import Hfss
>>> from ansys.aedt.toolkits.antenna.backend.antenna_models.conical_spiral import Log
>>> hfss = Hfss()
>>> antenna = Log(hfss, start_frequency=20.0,
... stop_frequency=50.0, frequency_unit="GHz",
... outer_boundary='Radiation', length_unit="mm",
... antenna_name="Log", origin=[1, 100, 50])
>>> antenna.model_hfss()
>>> antenna.setup_hfss()
>>> hfss.release_desktop(False, False)
"""
_default_input_parameters = {
"name": "",
"origin": [0, 0, 0],
"length_unit": "meter",
"coordinate_system": "Global",
"start_frequency": 4.0,
"stop_frequency": 10.0,
"frequency_unit": "GHz",
"material": "pec",
"outer_boundary": "",
}
def __init__(self, *args, **kwargs):
CommonConicalSpiral.__init__(self, self._default_input_parameters, *args, **kwargs)
self._parameters = self.synthesis()
self.update_synthesis_parameters(self._parameters)
self.antenna_type = "Log"
@pyaedt_function_handler()
def synthesis(self):
"""Antenna synthesis.
Returns
-------
dict
Analytical parameters.
"""
parameters = {}
start_freq_hz = constants.unit_converter(self.start_frequency, "Freq", self.frequency_unit, "Hz")
stop_freq_hz = constants.unit_converter(self.stop_frequency, "Freq", self.frequency_unit, "Hz")
scale_factor = 1.1
turns_number = 2
offset_angle = 90.0
spiral_coefficient = 1.0
points = 200
arms = 2
outer_rad_calc = scale_factor * 3e10 / (2 * math.pi * start_freq_hz)
outer_rad_calc = constants.unit_converter(outer_rad_calc, "Length", "cm", self.length_unit)
inner_rad_calc = scale_factor * 3e10 / (2 * math.pi * stop_freq_hz)
inner_rad = constants.unit_converter(inner_rad_calc, "Length", "cm", self.length_unit)
expansion_coefficient = round(math.pow(outer_rad_calc / inner_rad, 1.0 / turns_number), 2)
parameters["expansion_coefficient"] = expansion_coefficient
parameters["offset_angle"] = offset_angle
parameters["spiral_coefficient"] = spiral_coefficient
parameters["inner_rad"] = inner_rad
parameters["turns_number"] = turns_number
parameters["cone_height"] = (outer_rad_calc - inner_rad) * math.tan(math.radians(66.66))
parameters["points"] = points
parameters["arms_number"] = arms
parameters["pos_x"] = self.origin[0]
parameters["pos_y"] = self.origin[1]
parameters["pos_z"] = self.origin[2]
myKeys = list(parameters.keys())
myKeys.sort()
parameters_out = OrderedDict([(i, parameters[i]) for i in myKeys])
return parameters_out
@pyaedt_function_handler()
def model_hfss(self):
"""Draw a conical log spiral antenna. This method uses the User Defined Model from AEDT installation.
Once the antenna is created, this method is not used anymore."""
if self.object_list:
logger.debug("This antenna already exists")
return False
if (
self.material not in self._app.materials.mat_names_aedt
and self.material not in self._app.materials.mat_names_aedt_lower
):
self._app.logger.warning("Material not found. Create the material before assigning it.")
return False
self.set_variables_in_hfss()
# Map parameters
expansion_coefficient = self.synthesis_parameters.expansion_coefficient.hfss_variable
self._app[expansion_coefficient] = str(self.synthesis_parameters.expansion_coefficient.value)
offset_angle = self.synthesis_parameters.offset_angle.hfss_variable
self._app[offset_angle] = str(self.synthesis_parameters.offset_angle.value) + "deg"
spiral_coefficient = self.synthesis_parameters.spiral_coefficient.hfss_variable
self._app[spiral_coefficient] = str(self.synthesis_parameters.spiral_coefficient.value)
inner_rad = self.synthesis_parameters.inner_rad.hfss_variable
turns = self.synthesis_parameters.turns_number.hfss_variable
self._app[turns] = str(self.synthesis_parameters.turns_number.value)
cone_height = self.synthesis_parameters.cone_height.hfss_variable
arms = self.synthesis_parameters.arms_number.hfss_variable
self._app[arms] = str(self.synthesis_parameters.arms_number.value)
points = self.synthesis_parameters.points.hfss_variable
self._app[points] = str(self.synthesis_parameters.points.value)
pos_x = self.synthesis_parameters.pos_x.hfss_variable
pos_y = self.synthesis_parameters.pos_y.hfss_variable
pos_z = self.synthesis_parameters.pos_z.hfss_variable
antenna_name = self.name
coordinate_system = self.coordinate_system
my_udmPairs = []
mypair = ["NumberOfPoints", points]
my_udmPairs.append(mypair)
mypair = ["NumberOfArms", arms]
my_udmPairs.append(mypair)
mypair = ["InnerRadius", inner_rad]
my_udmPairs.append(mypair)
mypair = ["NumberOfTurns", turns]
my_udmPairs.append(mypair)
mypair = ["Offset", offset_angle]
my_udmPairs.append(mypair)
mypair = ["ConeHeight", cone_height]
my_udmPairs.append(mypair)
mypair = ["ExpansionCoefficient", expansion_coefficient]
my_udmPairs.append(mypair)
obj_udm = self._app.modeler.create_udm(
udmfullname="HFSS/Antenna Toolkit/Spiral/Log.py",
udm_params_list=my_udmPairs,
udm_library="syslib",
name="log",
)
for part in obj_udm.parts:
comp = obj_udm.parts[part]
comp.history().props["Coordinate System"] = coordinate_system
if "AntennaArm" in comp.name:
comp.name = "ant_" + comp.name + antenna_name
else:
comp.name = "port_lump_" + antenna_name
self.object_list[comp.name] = comp
obj_udm.move([pos_x, pos_y, pos_z])
obj_udm.group_name = antenna_name
@pyaedt_function_handler()
def model_disco(self):
"""Model in PyDiscovery. To be implemented."""
pass
@pyaedt_function_handler()
def setup_disco(self):
"""Set up in PyDiscovery. To be implemented."""
pass
class Sinuous(CommonConicalSpiral):
"""Manages conical sinuous spiral antenna.
This class is accessible through the app hfss object [1]_.
Parameters
----------
frequency : float, optional
Center frequency. The default is ``10.0``.
frequency_unit : str, optional
Frequency units. The default is ``"GHz"``.
material : str, optional
Horn material. The default is ``"pec"``. If a material is not defined, a new material,
``parametrized``, is defined. The default is ``"pec"``.
outer_boundary : str, optional
Boundary type to use. The default is ``None``. Options are ``"FEBI"``, ``"PML"``,
``"Radiation"``, and ``None``.
length_unit : str, optional
Length units. The default is ``"mm"``.
parametrized : bool, optional
Whether to create a parametrized antenna. The default is ``True``.
Returns
-------
:class:`aedt.toolkits.antenna.Sinuous`
Conical Sinuous spiral object.
Notes
-----
.. [1] R. Johnson, "Frequency Independent Antennas," Antenna Engineering Handbook,
3rd ed. New York, McGraw-Hill, 1993.
Examples
--------
>>> from ansys.aedt.core import Hfss
>>> from ansys.aedt.toolkits.antenna.backend.antenna_models.conical_spiral import Sinuous
>>> hfss = Hfss()
>>> antenna = Archimedean(hfss, start_frequency=20.0,
... stop_frequency=50.0, frequency_unit="GHz",
... outer_boundary='Radiation', length_unit="cm",
... antenna_name="Sinuous", origin=[1, 100, 50])
>>> antenna.model_hfss()
>>> antenna.setup_hfss()
>>> hfss.release_desktop(False, False)
"""
_default_input_parameters = {
"name": "",
"origin": [0, 0, 0],
"length_unit": "meter",
"coordinate_system": "Global",
"start_frequency": 4.0,
"stop_frequency": 10.0,
"frequency_unit": "GHz",
"material": "pec",
"outer_boundary": "",
}
def __init__(self, *args, **kwargs):
CommonConicalSpiral.__init__(self, self._default_input_parameters, *args, **kwargs)
self._parameters = self.synthesis()
self.update_synthesis_parameters(self._parameters)
self.antenna_type = "Log"
@pyaedt_function_handler()
def synthesis(self):
"""Antenna synthesis.
Returns
-------
dict
Analytical parameters.
"""
parameters = {}
lightSpeed = constants.SpeedOfLight
start_freq_hz = constants.unit_converter(self.start_frequency, "Freq", self.frequency_unit, "Hz")
stop_freq_hz = constants.unit_converter(self.stop_frequency, "Freq", self.frequency_unit, "Hz")
scale_factor = 1.25
cell_number = 8
alpha_angle = 45.0
delta_angle = 22.5
port_extension = 0.1
points = 200
arms = 4
outer_rad_calc = (
scale_factor * lightSpeed / start_freq_hz / 4.0 / (math.radians(alpha_angle) + math.radians(delta_angle))
)
outer_rad = constants.unit_converter(outer_rad_calc, "Length", "meter", self.length_unit)
inner_rad_calc = (
scale_factor
* lightSpeed
/ stop_freq_hz
/ 4.0
/ 2.0
/ (math.radians(alpha_angle) + math.radians(delta_angle))
)
inner_rad = constants.unit_converter(inner_rad_calc, "Length", "meter", self.length_unit)
port_extension = constants.unit_converter(port_extension, "Length", "cm", self.length_unit)
parameters["alpha_angle"] = alpha_angle
parameters["delta_angle"] = delta_angle
parameters["port_extension"] = port_extension
parameters["outer_rad"] = outer_rad
parameters["cell_number"] = cell_number
parameters["cone_height"] = (outer_rad - inner_rad) * math.tan(math.radians(66.66))
parameters["points"] = points
parameters["arms_number"] = arms
parameters["growth_rate"] = round(math.pow(inner_rad / outer_rad, 1.0 / (cell_number - 1)), 2)
parameters["pos_x"] = self.origin[0]
parameters["pos_y"] = self.origin[1]
parameters["pos_z"] = self.origin[2]
myKeys = list(parameters.keys())
myKeys.sort()
parameters_out = OrderedDict([(i, parameters[i]) for i in myKeys])
return parameters_out
@pyaedt_function_handler()
def model_hfss(self):
"""Draw a sinuous log spiral antenna. This method uses the User Defined Model from AEDT installation.
Once the antenna is created, this method is not used anymore."""
if self.object_list:
logger.debug("This antenna already exists")
return False
if (
self.material not in self._app.materials.mat_names_aedt
and self.material not in self._app.materials.mat_names_aedt_lower
):
self._app.logger.warning("Material not found. Create the material before assigning it.")
return False
self.set_variables_in_hfss()
# Map parameters
alpha_angle = self.synthesis_parameters.alpha_angle.hfss_variable
self._app[alpha_angle] = str(self.synthesis_parameters.alpha_angle.value) + "deg"
delta_angle = self.synthesis_parameters.delta_angle.hfss_variable
self._app[delta_angle] = str(self.synthesis_parameters.delta_angle.value) + "deg"
growth_rate = self.synthesis_parameters.growth_rate.hfss_variable
self._app[growth_rate] = str(self.synthesis_parameters.growth_rate.value)
cone_height = self.synthesis_parameters.cone_height.hfss_variable
outer_rad = self.synthesis_parameters.outer_rad.hfss_variable
arms = self.synthesis_parameters.arms_number.hfss_variable
self._app[arms] = str(self.synthesis_parameters.arms_number.value)
points = self.synthesis_parameters.points.hfss_variable
self._app[points] = str(self.synthesis_parameters.points.value)
cell_number = self.synthesis_parameters.cell_number.hfss_variable
self._app[cell_number] = str(self.synthesis_parameters.cell_number.value)
port_extension = self.synthesis_parameters.port_extension.hfss_variable
pos_x = self.synthesis_parameters.pos_x.hfss_variable
pos_y = self.synthesis_parameters.pos_y.hfss_variable
pos_z = self.synthesis_parameters.pos_z.hfss_variable
antenna_name = self.name
coordinate_system = self.coordinate_system
my_udmPairs = []
mypair = ["NumberOfPoints", points]
my_udmPairs.append(mypair)
mypair = ["NumberOfCells", cell_number]
my_udmPairs.append(mypair)
mypair = ["Alpha", alpha_angle]
my_udmPairs.append(mypair)
mypair = ["GrowRate", growth_rate]
my_udmPairs.append(mypair)
mypair = ["OuterRadius", outer_rad]
my_udmPairs.append(mypair)
mypair = ["Delta", delta_angle]
my_udmPairs.append(mypair)
mypair = ["NumberOfArms", arms]
my_udmPairs.append(mypair)
mypair = ["ConeHeight", cone_height]
my_udmPairs.append(mypair)
mypair = ["Port_Extension", port_extension]
my_udmPairs.append(mypair)
obj_udm = self._app.modeler.create_udm(
udmfullname="HFSS/Antenna Toolkit/Spiral/Sinuous.py",
udm_params_list=my_udmPairs,
udm_library="syslib",
name="log",
)
port_cont = 1
gnd_cont = 1
for part in obj_udm.parts:
comp = obj_udm.parts[part]
comp.history().props["Coordinate System"] = coordinate_system
if "AntennaArm" in comp.name:
comp.name = "ant_" + comp.name + antenna_name
elif "Port" in comp.name:
comp.name = "port_lump_" + antenna_name + "_" + str(port_cont)
port_cont += 1
else:
comp.name = "gnd_" + str(gnd_cont) + "_" + antenna_name
gnd_cont += 1
self.object_list[comp.name] = comp
obj_udm.move([pos_x, pos_y, pos_z])
obj_udm.group_name = antenna_name
@pyaedt_function_handler()
def model_disco(self):
"""Model in PyDiscovery. To be implemented."""
pass
@pyaedt_function_handler()
def setup_disco(self):
"""Set up in PyDiscovery. To be implemented."""
pass
