Maxwell 2D: PM synchronous motor transient analysis#

This example shows how you can use PyAEDT to create a Maxwell 2D transient analysis for an interior permanent magnet electric motor.

Perform required imports#

Perform required imports.

from math import sqrt as mysqrt
import csv
import os

from pyaedt import Maxwell2d
from pyaedt import examples
from pyaedt import generate_unique_project_name

Initialize Maxwell 2D#

Initialize Maxwell 2D, providing the version, path to the project, and the design name and type.

desktopVersion = "2022.2"

sName = "MySetupAuto"
sType = "TransientXY"

pName = generate_unique_project_name()
dName = "Sinusoidal"

Initialize dictionaries#

Initialize dictionaries that contain all the definitions for the design variables and output variables.

Initialize definitions for stator, rotor, and shaft#

Initialize geometry parameter definitions for the stator, rotor, and shaft. The naming refers to RMxprt primitives.

geom_params = {
    "DiaGap": "132mm",
    "DiaStatorYoke": "198mm",
    "DiaStatorInner": "132mm",
    "DiaRotorLam": "130mm",
    "DiaShaft": "44.45mm",
    "DiaOuter": "198mm",
    "Airgap": "1mm",
    "SlotNumber": "48",
    "SlotType": "3"

Initialize definitions for stator windings#

Initialize geometry parameter definitions for the stator windings. The naming refers to RMxprt primitives.

wind_params = {
    "Layers": "1",
    "ParallelPaths": "2",
    "R_Phase": "7.5mOhm",
    "WdgExt_F": "5mm",
    "SpanExt": "30mm",
    "SegAngle": "0.25",
    "CoilPitch": "5",  # coil pitch in slots
    "Coil_SetBack": "3.605732823mm",
    "SlotWidth": "2.814mm",  # RMxprt Bs0
    "Coil_Edge_Short": "3.769235435mm",
    "Coil_Edge_Long": "15.37828521mm"

Initialize definitions for model setup#

Initialize geometry parameter definitions for the model setup.

mod_params = {
    "NumPoles": "8",
    "Model_Length": "80mm",
    "SymmetryFactor": "8",
    "Magnetic_Axial_Length": "150mm",
    "Stator_Lam_Length": "0mm",
    "StatorSkewAngle": "0deg",
    "NumTorquePointsPerCycle": "30",
    "mapping_angle": "0.125*4deg",
    "num_m": "16",
    "Section_Angle": "360deg/SymmetryFactor"

Initialize definitions for operational machine#

Initialize geometry parameter definitions for the operational machine. This identifies the operating point for the transient setup.

oper_params = {
    "InitialPositionMD": "180deg/4",
    "IPeak": "480A",
    "MachineRPM": "3000rpm",
    "ElectricFrequency": "MachineRPM/60rpm*NumPoles/2*1Hz",
    "ElectricPeriod": "1/ElectricFrequency",
    "BandTicksinModel": "360deg/NumPoles/mapping_angle",
    "TimeStep": "ElectricPeriod/(2*BandTicksinModel)",
    "StopTime": "ElectricPeriod",
    "Theta_i": "135deg"

Set non-graphical mode#

Set non-graphical mode. "PYAEDT_NON_GRAPHICAL" is needed to generate documentation only. You can set non_graphical either to True or False.

non_graphical = os.getenv("PYAEDT_NON_GRAPHICAL", "False").lower() in ("true", "1", "t")

Launch Maxwell 2D#

Launch Maxwell 2D and save the project.

M2D = Maxwell2d(projectname=pName, specified_version=desktopVersion, designname=dName,
                solution_type=sType, new_desktop_session=False,

Create object to access 2D modeler#

Create the object mod2D to access the 2D modeler easily.

mod2D = M2D.modeler
mod2D.model_units = "mm"

Define variables from dictionaries#

Define design variables from the created dictionaries.

for k, v in geom_params.items():
    M2D[k] = v
for k, v in wind_params.items():
    M2D[k] = v
for k, v in mod_params.items():
    M2D[k] = v
for k, v in oper_params.items():
    M2D[k] = v

Define path for non-linear material properties#

Define the path for non-linear material properties. Materials are stored in text files.

filename_lam, filename_PM = examples.download_leaf()

Create first material#

Create the material "Copper (Annealed)_65C".

mat_coils = M2D.materials.add_material("Copper (Annealed)_65C")
mat_coils.conductivity = "49288048.9198"
mat_coils.permeability = "1"

Create second material#

Create the material "Arnold_Magnetics_N30UH_80C". The BH curve is read from a tabbed CSV file, and a list (BH_List_PM) is created. This list is passed to the mat_PM.permeability.set_non_linear method.

mat_PM = M2D.materials.add_material("Arnold_Magnetics_N30UH_80C_new")
mat_PM.conductivity = "555555.5556"
mat_PM.set_magnetic_coercitivity(-800146.66287534, 1, 0, 0)
mat_PM.mass_density = "7500"
BH_List_PM = []
with open(filename_PM) as f:
    reader = csv.reader(f, delimiter='\t')
    for row in reader:
        BH_List_PM.append([float(row[0]), float(row[1])])

Create third material#

Create the laminated material 30DH_20C_smooth. This material has a BH curve and a core loss model, which is set to electrical steel.

mat_lam = M2D.materials.add_material("30DH_20C_smooth")
mat_lam.conductivity = "1694915.25424"
kh = 71.7180985413
kc = 0.25092214579
ke = 12.1625774023
kdc = 0.001
eq_depth = 0.001
mat_lam.set_electrical_steel_coreloss(kh, kc, ke, kdc, eq_depth)
mat_lam.mass_density = "7650"
BH_List_lam = []
with open(filename_lam) as f:
    reader = csv.reader(f, delimiter='\t')
    for row in reader:
        BH_List_lam.append([float(row[0]), float(row[1])])

Create geometry for stator#

Create the geometry for the stator. It is created via the RMxprt user-defined primitive. A list of lists is created with the proper UDP paramters.

udp_par_list_stator = [["DiaGap", "DiaGap"], ["DiaYoke", "DiaStatorYoke"], ["Length", "Stator_Lam_Length"],
                       ["Skew", "StatorSkewAngle"], ["Slots", "SlotNumber"], ["SlotType", "SlotType"],
                       ["Hs0", "1.2mm"], ["Hs01", "0mm"], ["Hs1", "0.4834227384999mm"],
                       ["Hs2", "17.287669825502mm"],
                       ["Bs0", "2.814mm"], ["Bs1", "4.71154109036mm"], ["Bs2", "6.9777285790998mm"], ["Rs", "2mm"],
                       ["FilletType", "1"], ["HalfSlot", "0"], ["VentHoles", "0"], ["HoleDiaIn", "0mm"],
                       ["HoleDiaOut", "0mm"],
                       ["HoleLocIn", "0mm"], ["HoleLocOut", "0mm"], ["VentDucts", "0"], ["DuctWidth", "0mm"],
                       ["DuctPitch", "0mm"],
                       ["SegAngle", "0deg"], ["LenRegion", "Model_Length"], ["InfoCore", "0"]]

stator_id = mod2D.create_udp(udp_dll_name="RMxprt/VentSlotCore.dll",
                             udp_parameters_list=udp_par_list_stator, upd_library='syslib',
                             name='my_stator')  # name not taken

Assign properties to stator#

Assign properties to the stator. The following code assigns the material, name, color, and solve_inside properties.

M2D.assign_material(stator_id, "30DH_20C_smooth") = "Stator"
stator_id.color = (0, 0, 255)  # rgb
stator_id.solve_inside = True  # to be reassigned: M2D.assign material puts False if not dielectric

Create geometry for PMs#

Create the geometry for the PMs (permanent magnets). In Maxwell 2D, you assign magnetization via the coordinate system. Because each PM needs to have a coordinate system in the face center, auxiliary functions are created. Here, you use the auxiliary function find_elements(lst1, lst2) to find the elements in list lst1 with indexes in list lst2.

def find_elements(lst1, lst2):
    return [lst1[i] for i in lst2]

Find largest elements in list#

Use the auxiliary function find_n_largest (input_len_list, n_largest_edges) to find the n largest elements in the list input_len_list.

def find_n_largest(input_len_list, n_largest_edges):
    tmp = list(input_len_list)
    copied = list(input_len_list)
    copied.sort()  # sort list so that largest elements are on the far right
    index_list = []
    for n in range(1, n_largest_edges + 1):  # get index of the nth largest element
        tmp[tmp.index(copied[-n])] = 0  # index can only get the first occurrence that solves the problem
    return index_list

Create coordinate system for PMs#

Create the coordinate system for the PMs. The inputs are the object name, coordinate system name, and inner or outer magnetization. Find the two longest edges of the magnets and get the midpoint of the outer edge. You must have this point to create the face coordinate systems in case of outer magnetization.

def create_cs_magnets(pm_id, cs_name, point_direction):
    pm_face_id = mod2D.get_object_faces([0]  # works with name only
    pm_edges = mod2D.get_object_edges(  # gets the edges of the PM object
    edge_len_list = list(
        map(mod2D.get_edge_length, pm_edges))  # apply method get_edge_length to all elements of list pm_edges
    index_2_longest = find_n_largest(edge_len_list, 2)  # find the 2 longest edges of the PM
    longest_edge_list = find_elements(pm_edges, index_2_longest)
    edge_center_list = list(map(mod2D.get_edge_midpoint,
                                longest_edge_list))  # apply method get_edge_midpoint to all elements of list longest_edge_list

    rad = lambda x: mysqrt(x[0] * x[0] + x[1] * x[1] + x[2] * x[2])
    index_largest_r = find_n_largest(list(map(rad, edge_center_list)), 2)
    longest_edge_list2 = [longest_edge_list[i] for i in index_largest_r]  # reorder: outer first element of the list
    if point_direction == 'outer':
        my_axis_pos = longest_edge_list2[0]
    elif point_direction == 'inner':
        my_axis_pos = longest_edge_list2[1]

    mod2D.create_face_coordinate_system(face=pm_face_id, origin=pm_face_id, axis_position=my_axis_pos,
                                        axis="X", name=cs_name)
    pm_id.part_coordinate_system = cs_name

Create outer and inner PMs#

Create the outter and inner PMs and assign color to them.

IM1_points = [[56.70957112, 3.104886585, 0], [40.25081875, 16.67243502, 0], [38.59701538, 14.66621111, 0],
              [55.05576774, 1.098662669, 0]]
OM1_points = [[54.37758185, 22.52393189, 0], [59.69688156, 9.68200639, 0], [63.26490432, 11.15992981, 0],
              [57.94560461, 24.00185531, 0]]
IPM1_id = mod2D.create_polyline(position_list=IM1_points, cover_surface=True, name="PM_I1",
IPM1_id.color = (0, 128, 64)
OPM1_id = mod2D.create_polyline(position_list=OM1_points, cover_surface=True, name="PM_O1",
OPM1_id.color = (0, 128, 64)

Create coordinate system for PMs in face center#

Create the coordinate system for PMs in the face center.

create_cs_magnets(IPM1_id, 'CS_' +, 'outer')
create_cs_magnets(OPM1_id, 'CS_' +, 'outer')

Duplicate and mirror PMs#

Duplicate and mirror the PMs along with the local coordinate system.

mod2D.duplicate_and_mirror([IPM1_id, OPM1_id], position=[0, 0, 0],
                           vector=["cos((360deg/SymmetryFactor/2)+90deg)", "sin((360deg/SymmetryFactor/2)+90deg)", 0])
id_PMs = mod2D.get_objects_w_string("PM", case_sensitive=True)

Create coils#

Create the coils.

coil_id = mod2D.create_rectangle(position=['DiaRotorLam/2+Airgap+Coil_SetBack', '-Coil_Edge_Short/2', 0],
                                 dimension_list=['Coil_Edge_Long', 'Coil_Edge_Short', 0],
                                 name='Coil', matname="Copper (Annealed)_65C")
coil_id.color = (255, 128, 0)
M2D.modeler.rotate(objid=coil_id, cs_axis="Z", angle="360deg/SlotNumber/2")
coil_id.duplicate_around_axis(cs_axis="Z", angle="360deg/SlotNumber", nclones='CoilPitch+1',
id_coils = mod2D.get_objects_w_string("Coil", case_sensitive=True)

Create shaft and region#

Create the shaft and region.

region_id = mod2D.create_circle(position=[0, 0, 0], radius='DiaOuter/2',
                                num_sides='SegAngle', is_covered=True, name='Region')
shaft_id = mod2D.create_circle(position=[0, 0, 0], radius='DiaShaft/2',
                               num_sides='SegAngle', is_covered=True, name='Shaft')

Create bands#

Create the inner band, band, and outer band.

bandIN_id = mod2D.create_circle(position=[0, 0, 0], radius='(DiaGap - (1.5 * Airgap))/2',
                                num_sides='mapping_angle', is_covered=True, name='Inner_Band')
bandMID_id = mod2D.create_circle(position=[0, 0, 0], radius='(DiaGap - (1.0 * Airgap))/2',
                                 num_sides='mapping_angle', is_covered=True, name='Band')
bandOUT_id = mod2D.create_circle(position=[0, 0, 0], radius='(DiaGap - (0.5 * Airgap))/2',
                                 num_sides='mapping_angle', is_covered=True, name='Outer_Band')

Assign motion setup to object#

Assign a motion setup to a Band object named RotatingBand_mid.

M2D.assign_rotate_motion('Band', coordinate_system="Global", axis="Z", positive_movement=True,
                         start_position="InitialPositionMD", angular_velocity="MachineRPM")
<pyaedt.modules.Boundary.BoundaryObject object at 0x0000021DF17EF850>

Create list of vacuum objects#

Create a list of vaccum objects and assign color.

vacuum_obj_id = [shaft_id, region_id, bandIN_id, bandMID_id, bandOUT_id]  # put shaft first
for item in vacuum_obj_id:
    item.color = (128, 255, 255)

Create rotor#

Create the rotor. Holes are specific to the lamination. Allocated PMs are created.

rotor_id = mod2D.create_circle(position=[0, 0, 0], radius='DiaRotorLam/2',
                               num_sides=0, name="Rotor", matname="30DH_20C_smooth")
rotor_id.color = (0, 128, 255)
mod2D.subtract(rotor_id, shaft_id, keep_originals=True)
void_small_1_id = mod2D.create_circle(position=[62, 0, 0], radius="2.55mm",
                                      num_sides=0, name="void1", matname="vacuum")
M2D.modeler.duplicate_around_axis(void_small_1_id, cs_axis="Z", angle="360deg/SymmetryFactor",
                                  nclones=2, create_new_objects=False)
void_big_1_id = mod2D.create_circle(position=[29.5643, 12.234389332712, 0], radius='9.88mm/2',
                                    num_sides=0, name="void_big", matname="vacuum")
mod2D.subtract(rotor_id, [void_small_1_id, void_big_1_id], keep_originals=False)

slot_IM1_points = [[37.5302872, 15.54555396, 0], [55.05576774, 1.098662669, 0], [57.33637589, 1.25, 0],
                   [57.28982158, 2.626565019, 0], [40.25081875, 16.67243502, 0]]
slot_OM1_points = [[54.37758185, 22.52393189, 0], [59.69688156, 9.68200639, 0], [63.53825619, 10.5, 0],
                   [57.94560461, 24.00185531, 0]]
slot_IM_id = mod2D.create_polyline(position_list=slot_IM1_points, cover_surface=True, name="slot_IM1",
slot_OM_id = mod2D.create_polyline(position_list=slot_OM1_points, cover_surface=True, name="slot_OM1",

M2D.modeler.duplicate_and_mirror([slot_IM_id, slot_OM_id], position=[0, 0, 0],
                                         "sin((360deg/SymmetryFactor/2)+90deg)", 0])

id_holes = mod2D.get_objects_w_string("slot_", case_sensitive=True)
M2D.modeler.subtract(rotor_id, id_holes, keep_originals=True)

Create section of machine#

Create a section of the machine. This allows you to take advantage of symmetries.

object_list = [stator_id, rotor_id] + vacuum_obj_id
mod2D.create_coordinate_system(origin=[0, 0, 0],
                               x_pointing=["cos(360deg/SymmetryFactor)", "sin(360deg/SymmetryFactor)", 0],
                               y_pointing=["-sin(360deg/SymmetryFactor)", "cos(360deg/SymmetryFactor)", 0])

mod2D.split(object_list, "ZX", sides="NegativeOnly")
mod2D.split(object_list, "ZX", sides="PositiveOnly")

Create boundary conditions#

Create independent and dependent boundary conditions. Edges for assignment are picked by position. The points for edge picking are in the airgap.

pos_1 = "((DiaGap - (1.0 * Airgap))/4)"
id_bc_1 = mod2D.get_edgeid_from_position([pos_1, 0, 0], obj_name='Region')
id_bc_2 = mod2D.get_edgeid_from_position(
    [pos_1 + "*cos((360deg/SymmetryFactor))", pos_1 + "*sin((360deg/SymmetryFactor))", 0],
M2D.assign_master_slave(master_edge=id_bc_1, slave_edge=id_bc_2,
(<pyaedt.modules.Boundary.BoundaryObject object at 0x0000021DF503E220>, <pyaedt.modules.Boundary.BoundaryObject object at 0x0000021D9A81CF70>)

Assign vector potential#

Assign a vector potential of 0 to the second position.

pos_2 = "(DiaOuter/2)"
id_bc_az = mod2D.get_edgeid_from_position(
    [pos_2 + "*cos((360deg/SymmetryFactor/2))", pos_2 + "*sin((360deg/SymmetryFactor)/2)", 0],
M2D.assign_vector_potential(id_bc_az, vectorvalue=0, bound_name="VectorPotentialZero")
<pyaedt.modules.Boundary.BoundaryObject object at 0x0000021D9912DBB0>

Create excitations#

Create excitations, defining phase currents for the windings.

PhA_current = "IPeak * cos(2*pi*ElectricFrequency*time+Theta_i)"
PhB_current = "IPeak * cos(2*pi * ElectricFrequency*time - 120deg+Theta_i)"
PhC_current = "IPeak * cos(2*pi * ElectricFrequency*time - 240deg+Theta_i)"

Define windings in phase A#

Define windings in phase A.

M2D.assign_coil(["Coil"], conductor_number=6, polarity="Positive", name="CT_Ph1_P2_C1_Go")
M2D.assign_coil(["Coil_5"], conductor_number=6, polarity="Negative", name="CT_Ph1_P2_C1_Ret")
M2D.assign_winding(coil_terminals=None, winding_type="Current", is_solid=False,
                   current_value=PhA_current, parallel_branches=1, name="Phase_A")
M2D.add_winding_coils("Phase_A", ["CT_Ph1_P2_C1_Go", "CT_Ph1_P2_C1_Ret"])

Define windings in phase B#

Define windings in phase B.

M2D.assign_coil("Coil_3", conductor_number=6, polarity="Positive", name="CT_Ph3_P1_C2_Go")
M2D.assign_coil("Coil_4", conductor_number=6, polarity="Positive", name="CT_Ph3_P1_C1_Go")
M2D.assign_winding(coil_terminals=None, winding_type="Current", is_solid=False,
                   current_value=PhB_current, parallel_branches=1,
M2D.add_winding_coils("Phase_B", ["CT_Ph3_P1_C2_Go", "CT_Ph3_P1_C1_Go"])

Define windings in phase C#

Define windings in phase C.

M2D.assign_coil("Coil_1", conductor_number=6, polarity="Negative", name="CT_Ph2_P2_C2_Ret")
M2D.assign_coil("Coil_2", conductor_number=6, polarity="Negative", name="CT_Ph2_P2_C1_Ret")
M2D.assign_winding(coil_terminals=None, winding_type="Current", is_solid=False,
                   current_value=PhC_current, parallel_branches=1,
M2D.add_winding_coils("Phase_C", ["CT_Ph2_P2_C2_Ret", "CT_Ph2_P2_C1_Ret"])

Assign total current on PMs#

Assign a total current of 0 on the PMs.

PM_list = id_PMs
for item in PM_list:
    M2D.assign_current(item, amplitude=0, solid=True, name=item + "_I0")

Create mesh operations#

Create the mesh operations.

M2D.mesh.assign_length_mesh(id_coils, isinside=True, maxlength=3, maxel=None, meshop_name="coils")
M2D.mesh.assign_length_mesh(stator_id, isinside=True, maxlength=3, maxel=None, meshop_name="stator")
M2D.mesh.assign_length_mesh(rotor_id, isinside=True, maxlength=3, maxel=None, meshop_name="rotor")
<pyaedt.modules.Mesh.MeshOperation object at 0x0000021DF503E4F0>

Turn on eddy effects#

Turn on eddy effects.

# M2D.eddy_effects_on(eddy_effects_list,activate_eddy_effects=True, activate_displacement_current=False)

Turn on core loss#

Turn on core loss.

core_loss_list = ['Rotor', 'Stator']
M2D.set_core_losses(core_loss_list, value=True)

Compute transient inductance#

Compute the transient inducatance.

M2D.change_inductance_computation(compute_transient_inductance=True, incremental_matrix=False)

Set model depth#

Set the model depth.

M2D.model_depth = "Magnetic_Axial_Length"

Set symmetry factor#

Set the symmetry factor.


Create setup and validate#

Create the setup and validate it.

setup = M2D.create_setup(setupname=sName)
setup.props["StopTime"] = "StopTime"
setup.props["TimeStep"] = "TimeStep"
setup.props["SaveFieldsType"] = "None"
setup.props["OutputPerObjectCoreLoss"] = True
setup.props["OutputPerObjectSolidLoss"] = True
setup.props["OutputError"] = True

model = M2D.plot(show=False)
model.plot(os.path.join(M2D.working_directory, "Image.jpg"))
Maxwell2D NissanLeaf

Initialize definitions for output variables#

Initialize the definitions for the needed output variables. You use these output variables later to generate reports.

output_vars = {
    "Current_A": "InputCurrent(Phase_A)",
    "Current_B": "InputCurrent(Phase_B)",
    "Current_C": "InputCurrent(Phase_C)",
    "Flux_A": "FluxLinkage(Phase_A)",
    "Flux_B": "FluxLinkage(Phase_B)",
    "Flux_C": "FluxLinkage(Phase_C)",
    "pos": "(Moving1.Position -InitialPositionMD) *NumPoles/2",
    "cos0": "cos(pos)",
    "cos1": "cos(pos-2*PI/3)",
    "cos2": "cos(pos-4*PI/3)",
    "sin0": "sin(pos)",
    "sin1": "sin(pos-2*PI/3)",
    "sin2": "sin(pos-4*PI/3)",
    "Flux_d": "2/3*(Flux_A*cos0+Flux_B*cos1+Flux_C*cos2)",
    "Flux_q": "-2/3*(Flux_A*sin0+Flux_B*sin1+Flux_C*sin2)",
    "I_d": "2/3*(Current_A*cos0 + Current_B*cos1 + Current_C*cos2)",
    "I_q": "-2/3*(Current_A*sin0 + Current_B*sin1 + Current_C*sin2)",
    "Irms": "sqrt(I_d^2+I_q^2)/sqrt(2)",
    "ArmatureOhmicLoss_DC": "Irms^2*R_phase",
    "Lad": "L(Phase_A,Phase_A)*cos0 + L(Phase_A,Phase_B)*cos1 + L(Phase_A,Phase_C)*cos2",
    "Laq": "L(Phase_A,Phase_A)*sin0 + L(Phase_A,Phase_B)*sin1 + L(Phase_A,Phase_C)*sin2",
    "Lbd": "L(Phase_B,Phase_A)*cos0 + L(Phase_B,Phase_B)*cos1 + L(Phase_B,Phase_C)*cos2",
    "Lbq": "L(Phase_B,Phase_A)*sin0 + L(Phase_B,Phase_B)*sin1 + L(Phase_B,Phase_C)*sin2",
    "Lcd": "L(Phase_C,Phase_A)*cos0 + L(Phase_C,Phase_B)*cos1 + L(Phase_C,Phase_C)*cos2",
    "Lcq": "L(Phase_C,Phase_A)*sin0 + L(Phase_C,Phase_B)*sin1 + L(Phase_C,Phase_C)*sin2",
    "L_d": "(Lad*cos0 + Lbd*cos1 + Lcd*cos2) * 2/3",
    "L_q": "(Laq*sin0 + Lbq*sin1 + Lcq*sin2) * 2/3",
    "OutputPower": "Moving1.Speed*Moving1.Torque",
    "Ui_A": "InducedVoltage(Phase_A)",
    "Ui_B": "InducedVoltage(Phase_B)",
    "Ui_C": "InducedVoltage(Phase_C)",
    "Ui_d": "2/3*(Ui_A*cos0 + Ui_B*cos1 + Ui_C*cos2)",
    "Ui_q": "-2/3*(Ui_A*sin0 + Ui_B*sin1 + Ui_C*sin2)",
    "U_A": "Ui_A+R_Phase*Current_A",
    "U_B": "Ui_B+R_Phase*Current_B",
    "U_C": "Ui_C+R_Phase*Current_C",
    "U_d": "2/3*(U_A*cos0 + U_B*cos1 + U_C*cos2)",
    "U_q": "-2/3*(U_A*sin0 + U_B*sin1 + U_C*sin2)"

Create output variables for postprocessing#

Create output variables for postprocessing.

for k, v in output_vars.items():
    M2D.create_output_variable(k, v)

Initialize definition for postprocessing plots#

Initialize the definition for postprocessing plots.

post_params = {
    "Moving1.Torque": "TorquePlots"

Initialize definition for postprocessing multiplots#

Initialize the definition for postprocessing multiplots.

post_params_multiplot = {  # reports
    ("U_A", "U_B", "U_C", "Ui_A", "Ui_B", "Ui_C"): "PhaseVoltages",
    ("CoreLoss", "SolidLoss", "ArmatureOhmicLoss_DC"): "Losses",
    ("InputCurrent(Phase_A)", "InputCurrent(Phase_B)", "InputCurrent(Phase_C)"): "PhaseCurrents",
    ("FluxLinkage(Phase_A)", "FluxLinkage(Phase_B)", "FluxLinkage(Phase_C)"): "PhaseFluxes",
    ("I_d", "I_q"): "Currents_dq",
    ("Flux_d", "Flux_q"): "Fluxes_dq",
    ("Ui_d", "Ui_q"): "InducedVoltages_dq",
    ("U_d", "U_q"): "Voltages_dq",
    ("L(Phase_A,Phase_A)", "L(Phase_B,Phase_B)", "L(Phase_C,Phase_C)", "L(Phase_A,Phase_B)", "L(Phase_A,Phase_C)",
     "L(Phase_B,Phase_C)"): "PhaseInductances",
    ("L_d", "L_q"): "Inductances_dq",
    ("CoreLoss", "CoreLoss(Stator)", "CoreLoss(Rotor)"): "CoreLosses",
    ("EddyCurrentLoss", "EddyCurrentLoss(Stator)", "EddyCurrentLoss(Rotor)"): "EddyCurrentLosses (Core)",
    ("ExcessLoss", "ExcessLoss(Stator)", "ExcessLoss(Rotor)"): "ExcessLosses (Core)",
    ("HysteresisLoss", "HysteresisLoss(Stator)", "HysteresisLoss(Rotor)"): "HysteresisLosses (Core)",
    ("SolidLoss", "SolidLoss(IPM1)", "SolidLoss(IPM1_1)", "SolidLoss(OPM1)", "SolidLoss(OPM1_1)"): "SolidLoss"

Create report#

Create a report.

for k, v in post_params.items():, setup_sweep_name="", domain="Sweep", variations=None,
                           primary_sweep_variable="Time", secondary_sweep_variable=None,
                           report_category=None, plot_type="Rectangular Plot", context=None, subdesign_id=None,
                           polyline_points=1001, plotname=v)

Create multiplot report#

Create a multiplot report.

for k, v in post_params_multiplot.items():, setup_sweep_name="", domain="Sweep", variations=None,
                           primary_sweep_variable="Time", secondary_sweep_variable=None,
                           report_category=None, plot_type="Rectangular Plot", context=None, subdesign_id=None,
                           polyline_points=1001, plotname=v)

Create flux lines plot on region#

Create a flux lines plot on a region. The object_list is formerly created when the section is applied.

faces_reg = mod2D.get_object_faces(object_list[1].name)  # Region
# Maxwell Transient needs time specified in a dictionary
# "IntrinsicVar:="  , "Time=\'0\'",, 'Flux_Lines', intrinsincDict={"Time": "0.000"}, plot_name="Flux_Lines")
< object at 0x0000021D9A832370>

Analyze and save project#

Analyze and save the project.


Close AEDT#

Close AEDT.


Total running time of the script: ( 2 minutes 42.512 seconds)

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