pyleecan.Classes.SlotW61 module

Method code available at https://github.com/Eomys/pyleecan/tree/master/pyleecan/Methods/Slot/SlotW61

class SlotW61(W0=0.314, W1=0.02, W2=0.03, H0=0.003, H1=0.05, H2=0.15, H3=0, H4=0, W3=0, Zs=36, wedge_mat=None, is_bore=True, init_dict=None, init_str=None)[source]

Bases: Slot

VERSION = 1
IS_SYMMETRICAL = 0
build_geometry()

Compute the curve (Line) needed to plot the Slot. The ending point of a curve is the starting point of the next curve in the list

Parameters:

self (SlotW61) – A SlotW61 object

Returns:

curve_list – A list of 10 Segment

Return type:

list

build_geometry_active(Nrad, Ntan, is_simplified=False, alpha=0, delta=0)

Split the slot winding area in several zone

Parameters:

  • self (SlotW61) – A SlotW61 object

  • Nrad (int) – Number of radial layer

  • Ntan (int) – Number of tangentiel layer

  • is_simplified (bool) –

    boolean to specify if the coincident lines are considered as one

    or different lines (Default value = False)

  • alpha (float) – Angle for rotation (Default value = 0) [rad]

  • delta (complex) – complex for translation (Default value = 0)

Returns:

surf_list – List of surface delimiting the winding zone

Return type:

list

check()

Check that the SlotW61 object is correct

Parameters:

self (SlotW61) – A SlotW61 object

Return type:

None

Raises:
comp_angle_opening()

Compute the average opening angle of the Slot

Parameters:

self (SlotW61) – A SlotW61 object

Returns:

alpha – Average opening angle of the slot [rad]

Return type:

float

comp_height()

Compute the height of the Slot. Caution, the bottom of the Slot is an Arc

Parameters:

self (SlotW61) – A SlotW61 object

Returns:

Htot – Height of the slot [m]

Return type:

float

comp_height_active()

Compute the height of the winding area

Parameters:

self (SlotW61) – A SlotW61 object

Returns:

Hwind – Height of the winding area [m]

Return type:

float

comp_surface()

Compute the Slot total surface (by analytical computation). Caution, the bottom of the Slot is an Arc

Parameters:

self (SlotW61) – A SlotW61 object

Returns:

S – Slot total surface [m**2]

Return type:

float

comp_surface_active()

Compute the Slot inner surface for winding

Parameters:

self (SlotW61) – A SlotW61 object

Returns:

Swind – Slot inner surface for winding [m**2]

Return type:

float

get_surface_active(alpha=0, delta=0)

Return the full winding surface

Parameters:

  • self (SlotW61) – A SlotW61 object

  • alpha (float) – float number for rotation (Default value = 0) [rad]

  • delta (complex) – complex number for translation (Default value = 0)

Returns:

surf_wind – Surface corresponding to the Winding Area

Return type:

Surface

get_surface_opening(alpha=0, delta=0)

Return the list of surfaces defining the opening area of the Slot

Parameters:

  • self (SlotW60) – A SlotW60 object

  • alpha (float) – float number for rotation (Default value = 0) [rad]

  • delta (complex) – complex number for translation (Default value = 0)

Returns:

surf_list – list of surfaces objects

Return type:

list

plot_schematics(is_default=False, is_add_point_label=False, is_add_schematics=True, is_add_main_line=True, type_add_active=1, save_path=None, is_show_fig=True, fig=None, ax=None)

Plot the schematics of the slot

Parameters:

  • self (SlotW61) – A SlotW61 object

  • is_default (bool) – True: plot default schematics, else use current slot values

  • is_add_point_label (bool) – True to display the name of the points (Z1, Z2….)

  • is_add_schematics (bool) – True to display the schematics information (W0, H0…)

  • is_add_main_line (bool) – True to display “main lines” (slot opening and 0x axis)

  • type_add_active (int) – 0: No active surface, 1: active surface as winding, 2: active surface as magnet, 3: active surface as winding + wedges

  • save_path (str) – full path including folder, name and extension of the file to save if save_path is not None

  • is_show_fig (bool) – To call show at the end of the method

  • fig (Matplotlib.figure.Figure) – existing figure to use if None create a new one

  • ax (Matplotlib.axes.Axes object) – Axis on which to plot the data

Returns:

  • fig (Matplotlib.figure.Figure) – Figure containing the schematics

  • ax (Matplotlib.axes.Axes object) – Axis containing the schematics

save(save_path='', is_folder=False, type_handle_old=2, type_compression=0)

Save the object to the save_path

Parameters:

  • self – A pyleecan object

  • save_path (str) – path to the folder to save the object

  • is_folder (bool) – to split the object in different files: separate simulation machine and materials (json only)

  • type_handle_old (int) – How to handle old file in folder mode (0:Nothing, 1:Delete, 2:Move to “Backup” folder)

  • type_compression (int) – Available only for json, 0: no compression, 1: gzip

get_logger()

Get the object logger or its parent’s one

Parameters:

obj – A pyleecan object

Returns:

logger – Pyleecan object dedicated logger

Return type:

logging.Logger

compare(other, name='self', ignore_list=None, is_add_value=False)[source]

Compare two objects and return list of differences

as_dict(type_handle_ndarray=0, keep_function=False, **kwargs)[source]

Convert this object in a json serializable dict (can be use in __init__). type_handle_ndarray: int

How to handle ndarray (0: tolist, 1: copy, 2: nothing)

keep_functionbool

True to keep the function object, else return str

Optional keyword input parameter is for internal use only and may prevent json serializability.

copy()[source]

Creates a deepcopy of the object

property W0

Pole top width

Type:

float

Min:

0

property W1

Pole top width

Type:

float

Min:

0

property W2

Pole bottom width

Type:

float

Min:

0

property H0

Pole top height

Type:

float

Min:

0

property H1

Pole intermediate height

Type:

float

Min:

0

property H2

Pole bottom height

Type:

float

Min:

0

property H3

Top Distance Ploe-coil

Type:

float

Min:

0

property H4

Bottom Distance Ploe-coil

Type:

float

Min:

0

property W3

Edge Distance Ploe-coil

Type:

float

Min:

0