T1G

class zgoubidoo.commands.contrib.iba.T1G(label1: str = '', label2: str = '', *params, **kwargs)

Bases: zgoubidoo.commands.magnetique.Multipole

Proteus One steering magnet.

Command attributes

LABEL1=''

Primary label for the Zgoubi command (default: auto-generated hash).

Type

str

LABEL2=''

Secondary label for the Zgoubi command.

Type

str

HEIGHT='20 centimeter'

Height of the magnet (distance between poles), used by plotting functions.

Type

Quantity

POLE_WIDTH='30 centimeter'

Pole width (used for plotting only).

Type

Quantity

PIPE_THICKNESS='2 centimeter'

Thickness of the pipe, used by plotting functions.

Type

Quantity

PIPE_COLOR='grey'

Color of the pipe, used by plotting functions.

Type

str

REFERENCE_FIELD_COMPONENT='BZ'

Orientation of the reference field (used by field maps)

Type

str

KINEMATICS='None'

A kinematics object.

Type

NoneType

APERTURE_LEFT='10 centimeter'

Aperture size of the magnet, left side (used for plotting only).

Type

Quantity

APERTURE_RIGHT='10 centimeter'

Aperture size of the magnet, right side (used for plotting only).

Type

Quantity

APERTURE_TOP='10 centimeter'

Aperture size of the magnet, top side (used for plotting only).

Type

Quantity

APERTURE_BOTTOM='10 centimeter'

Aperture size of the magnet, bottom side (used for plotting only).

Type

Quantity

COLOR='green'

Magnet color for plotting.

Type

str

LENGTH_IS_ARC_LENGTH='False'

Type

bool

IL='0'

Print field and coordinates along trajectories

Type

int

XL='209.1 millimeter'

Magnet length

Type

Quantity

R0='10.0 centimeter'

Radius of the pole tips

Type

Quantity

B1='1e-06 gauss'

Field at pole tip for dipolar component.

Type

Quantity

B2='0 kilogauss'

Field at pole tip for quadrupolar component.

Type

Quantity

B3='0 kilogauss'

Field at pole tip for sextupolar component.

Type

Quantity

B4='0 kilogauss'

Field at pole tip for octupolar component.

Type

Quantity

B5='0 kilogauss'

Field at pole tip for decapolar component.

Type

Quantity

B6='0 kilogauss'

Field at pole tip for dodecapolar component.

Type

Quantity

B7='0 kilogauss'

Field at pole tip for 14-polar component.

Type

Quantity

B8='0 kilogauss'

Field at pole tip for 16-polar component.

Type

Quantity

B9='0 kilogauss'

Field at pole tip for 18-polar component.

Type

Quantity

B10='0 kilogauss'

Field at pole tip for 20-polar component.

Type

Quantity

X_E='0 centimeter'

Entrance face integration zone for the fringe field.

Type

Quantity

LAM_E='0 centimeter'

Entrance face fringe field extent

Type

Quantity

E2='1'

Quadrupole entrance fringe field extent (E_2 * LAM_E).

Type

int

E3='1'

Sextupolar entrance fringe field extent (E_3 * LAM_E).

Type

int

E4='1'

Octupolar entrance fringe field extent (E_4 * LAM_E).

Type

int

E5='1'

Decapolar entrance fringe field extent (E_5 * LAM_E).

Type

int

E6='1'

Dodecapolar entrance fringe field extent (E_6 * LAM_E).

Type

int

E7='1'

14-polar entrance fringe field extent (E_7 * LAM_E).

Type

int

E8='1'

16-polar entrance fringe field extent (E_8 * LAM_E).

Type

int

E9='1'

18-polar entrance fringe field extent (E_9 * LAM_E).

Type

int

E10='1'

20-polar entrance fringe field extent (E_10 * LAM_E).

Type

int

C0_E='0'

Zeroth-order Enge coefficient for entrance fringe field.

Type

int

C1_E='1'

First-order Enge coefficient for entrance fringe field.

Type

int

C2_E='0'

Second-order Enge coefficient for entrance fringe field.

Type

int

C3_E='0'

Third-order Enge coefficient for entrance fringe field.

Type

int

C4_E='0'

Fourth-order Enge coefficient for entrance fringe field.

Type

int

C5_E='0'

Fifth-order Enge coefficient for entrance fringe field.

Type

int

X_S='0 centimeter'

Exit face integration zone for the fringe field.

Type

Quantity

LAM_S='0 centimeter'

Exit face fringe field extent

Type

Quantity

S2='1'

Quadrupole exit fringe field extent (E_2 * LAM_S).

Type

int

S3='1'

Sextupolar exit fringe field extent (E_3 * LAM_S).

Type

int

S4='1'

Octupolar exit fringe field extent (E_4 * LAM_S).

Type

int

S5='1'

Decapolar exit fringe field extent (E_5 * LAM_S).

Type

int

S6='1'

Dodecapolar exit fringe field extent (E_6 * LAM_S).

Type

int

S7='1'

14-polar exit fringe field extent (E_7 * LAM_S).

Type

int

S8='1'

16-polar exit fringe field extent (E_8 * LAM_S).

Type

int

S9='1'

18-polar exit fringe field extent (E_9 * LAM_S).

Type

int

S10='1'

20-polar exit fringe field extent (E_10 * LAM_S).

Type

int

C0_S='0'

Zeroth-order Enge coefficient for entrance fringe field.

Type

int

C1_S='1'

First-order Enge coefficient for exit fringe field.

Type

int

C2_S='0'

Second-order Enge coefficient for exit fringe field.

Type

int

C3_S='0'

Third-order Enge coefficient for exit fringe field.

Type

int

C4_S='0'

Fourth-order Enge coefficient for exit fringe field.

Type

int

C5_S='0'

Fifth-order Enge coefficient for exit fringe field.

Type

int

R1='0 degree'

Skew angle of the dipolar component

Type

Quantity

R2='0 degree'

Skew angle of the quadrupolar component

Type

Quantity

R3='0 degree'

Skew angle of the sextupolar component

Type

Quantity

R4='0 degree'

Skew angle of the octupolar component

Type

Quantity

R5='0 degree'

Skew angle of the decapolar component

Type

Quantity

R6='0 degree'

Skew angle of the dodecapolar component

Type

Quantity

R7='0 degree'

Skew angle of the 14-polar component

Type

Quantity

R8='0 degree'

Skew angle of the 16-polar component

Type

Quantity

R9='0 degree'

Skew angle of the 18-polar component

Type

Quantity

R10='0 degree'

Skew angle of the 20-polar component

Type

Quantity

XPAS='1.0 centimeter'

Integration step.

Type

Quantity

KPOS='1'

Type

int

XCE='0 centimeter'

Type

Quantity

YCE='0 centimeter'

Type

Quantity

ALE='0 radian'

Type

Quantity

Default initializer for all Commands.

Attributes Summary

KEYWORD
PARAMETERS

Methods Summary

post_init(**kwargs)

param **kwargs

Attributes Documentation

KEYWORD: str = 'MULTIPOL'

PARAMETERS: dict = {'ALE': (<Quantity(0, 'radian')>, ''), 'APERTURE_BOTTOM': (<Quantity(10, 'centimeter')>, 'Aperture size of the magnet, bottom side (used for plotting only).'), 'APERTURE_LEFT': (<Quantity(10, 'centimeter')>, 'Aperture size of the magnet, left side (used for plotting only).'), 'APERTURE_RIGHT': (<Quantity(10, 'centimeter')>, 'Aperture size of the magnet, right side (used for plotting only).'), 'APERTURE_TOP': (<Quantity(10, 'centimeter')>, 'Aperture size of the magnet, top side (used for plotting only).'), 'B1': (<Quantity(1e-06, 'gauss')>, 'Field at pole tip for dipolar component.', 4), 'B10': (<Quantity(0, 'kilogauss')>, 'Field at pole tip for 20-polar component.', 13), 'B2': (<Quantity(0, 'kilogauss')>, 'Field at pole tip for quadrupolar component.', 5), 'B3': (<Quantity(0, 'kilogauss')>, 'Field at pole tip for sextupolar component.', 6), 'B4': (<Quantity(0, 'kilogauss')>, 'Field at pole tip for octupolar component.', 7), 'B5': (<Quantity(0, 'kilogauss')>, 'Field at pole tip for decapolar component.', 8), 'B6': (<Quantity(0, 'kilogauss')>, 'Field at pole tip for dodecapolar component.', 9), 'B7': (<Quantity(0, 'kilogauss')>, 'Field at pole tip for 14-polar component.', 10), 'B8': (<Quantity(0, 'kilogauss')>, 'Field at pole tip for 16-polar component.', 11), 'B9': (<Quantity(0, 'kilogauss')>, 'Field at pole tip for 18-polar component.', 12), 'C0_E': (0, 'Zeroth-order Enge coefficient for entrance fringe field.'), 'C0_S': (0, 'Zeroth-order Enge coefficient for entrance fringe field.'), 'C1_E': (1, 'First-order Enge coefficient for entrance fringe field.'), 'C1_S': (1, 'First-order Enge coefficient for exit fringe field.'), 'C2_E': (0, 'Second-order Enge coefficient for entrance fringe field.'), 'C2_S': (0, 'Second-order Enge coefficient for exit fringe field.'), 'C3_E': (0, 'Third-order Enge coefficient for entrance fringe field.'), 'C3_S': (0, 'Third-order Enge coefficient for exit fringe field.'), 'C4_E': (0, 'Fourth-order Enge coefficient for entrance fringe field.'), 'C4_S': (0, 'Fourth-order Enge coefficient for exit fringe field.'), 'C5_E': (0, 'Fifth-order Enge coefficient for entrance fringe field.'), 'C5_S': (0, 'Fifth-order Enge coefficient for exit fringe field.'), 'COLOR': ('green', 'Magnet color for plotting.'), 'E10': (1, '20-polar entrance fringe field extent (E_10 * LAM_E).'), 'E2': (1, 'Quadrupole entrance fringe field extent (E_2 * LAM_E).'), 'E3': (1, 'Sextupolar entrance fringe field extent (E_3 * LAM_E).'), 'E4': (1, 'Octupolar entrance fringe field extent (E_4 * LAM_E).'), 'E5': (1, 'Decapolar entrance fringe field extent (E_5 * LAM_E).'), 'E6': (1, 'Dodecapolar entrance fringe field extent (E_6 * LAM_E).'), 'E7': (1, '14-polar entrance fringe field extent (E_7 * LAM_E).'), 'E8': (1, '16-polar entrance fringe field extent (E_8 * LAM_E).'), 'E9': (1, '18-polar entrance fringe field extent (E_9 * LAM_E).'), 'HEIGHT': (<Quantity(20, 'centimeter')>, 'Height of the magnet (distance between poles), used by plotting functions.'), 'IL': (0, 'Print field and coordinates along trajectories', 1), 'KINEMATICS': (None, 'A kinematics object.'), 'KPOS': (1, ''), 'LABEL1': ('', 'Primary label for the Zgoubi command (default: auto-generated hash).'), 'LABEL2': ('', 'Secondary label for the Zgoubi command.'), 'LAM_E': (<Quantity(0, 'centimeter')>, 'Entrance face fringe field extent'), 'LAM_S': (<Quantity(0, 'centimeter')>, 'Exit face fringe field extent'), 'LENGTH_IS_ARC_LENGTH': (False, ''), 'PIPE_COLOR': ('grey', 'Color of the pipe, used by plotting functions.'), 'PIPE_THICKNESS': (<Quantity(2, 'centimeter')>, 'Thickness of the pipe, used by plotting functions.'), 'POLE_WIDTH': (<Quantity(30, 'centimeter')>, 'Pole width (used for plotting only).'), 'R0': (<Quantity(10.0, 'centimeter')>, 'Radius of the pole tips', 3), 'R1': (<Quantity(0, 'degree')>, 'Skew angle of the dipolar component'), 'R10': (<Quantity(0, 'degree')>, 'Skew angle of the 20-polar component'), 'R2': (<Quantity(0, 'degree')>, 'Skew angle of the quadrupolar component'), 'R3': (<Quantity(0, 'degree')>, 'Skew angle of the sextupolar component'), 'R4': (<Quantity(0, 'degree')>, 'Skew angle of the octupolar component'), 'R5': (<Quantity(0, 'degree')>, 'Skew angle of the decapolar component'), 'R6': (<Quantity(0, 'degree')>, 'Skew angle of the dodecapolar component'), 'R7': (<Quantity(0, 'degree')>, 'Skew angle of the 14-polar component'), 'R8': (<Quantity(0, 'degree')>, 'Skew angle of the 16-polar component'), 'R9': (<Quantity(0, 'degree')>, 'Skew angle of the 18-polar component'), 'REFERENCE_FIELD_COMPONENT': ('BZ', 'Orientation of the reference field (used by field maps)'), 'S10': (1, '20-polar exit fringe field extent (E_10 * LAM_S).'), 'S2': (1, 'Quadrupole exit fringe field extent (E_2 * LAM_S).'), 'S3': (1, 'Sextupolar exit fringe field extent (E_3 * LAM_S).'), 'S4': (1, 'Octupolar exit fringe field extent (E_4 * LAM_S).'), 'S5': (1, 'Decapolar exit fringe field extent (E_5 * LAM_S).'), 'S6': (1, 'Dodecapolar exit fringe field extent (E_6 * LAM_S).'), 'S7': (1, '14-polar exit fringe field extent (E_7 * LAM_S).'), 'S8': (1, '16-polar exit fringe field extent (E_8 * LAM_S).'), 'S9': (1, '18-polar exit fringe field extent (E_9 * LAM_S).'), 'XCE': (<Quantity(0, 'centimeter')>, ''), 'XL': (<Quantity(209.1, 'millimeter')>, 'Magnet length', 2), 'XPAS': (<Quantity(1.0, 'centimeter')>, 'Integration step.'), 'X_E': (<Quantity(0, 'centimeter')>, 'Entrance face integration zone for the fringe field.'), 'X_S': (<Quantity(0, 'centimeter')>, 'Exit face integration zone for the fringe field.'), 'YCE': (<Quantity(0, 'centimeter')>, '')}

Methods Documentation

post_init(**kwargs)

Parameters

**kwargs –

Returns: