`Component`#

class ansys.geometry.core.designer.component.Component(name: str, parent_component: beartype.typing.Union[Component, None], grpc_client: ansys.geometry.core.connection.client.GrpcClient, template: beartype.typing.Optional[Component] = None, preexisting_id: beartype.typing.Optional[str] = None, master_component: beartype.typing.Optional[ansys.geometry.core.designer.part.MasterComponent] = None, read_existing_comp: bool = False)#

Provides for creating and managing a component.

This class synchronizes to a design within a supporting Geometry service instance.

Parameters:

namestr: User-defined label for the new component.
parent_componentComponent or None: Parent component to place the new component under within the design assembly. The default is None only when dealing with a Design object.
grpc_clientGrpcClient: Active supporting Geometry service instance for design modeling.
templateComponent, default: None: Template to create this component from. This creates an instance component that shares a master with the template component.
preexisting_idstr, default: None: ID of a component pre-existing on the server side to use to create the component on the client-side data model. If an ID is specified, a new component is not created on the server.
master_componentMasterComponent, default: None: Master component to use to create a nested component instance instead of creating a new conponent.
read_existing_compbool, default: False: Whether an existing component on the service should be read. This parameter is only valid when connecting to an existing service session. Otherwise, avoid using this optional parameter.

Overview#

Methods

`get_world_transform`	Get the full transformation matrix of the component in world space.
`modify_placement`	Apply a translation and/or rotation to the placement matrix.
`reset_placement`	Reset a component’s placement matrix to an identity matrix.
`add_component`	Add a new component under this component within the design assembly.
`set_shared_topology`	Set the shared topology to apply to the component.
`extrude_sketch`	Create a solid body by extruding the sketch profile a distance.
`sweep_sketch`	Create a body by sweeping a planar profile along a path.
`sweep_chain`	Create a body by sweeping a chain of curves along a path.
`revolve_sketch`	Create a solid body by revolving a sketch profile around an axis.
`extrude_face`	Extrude the face profile by a given distance to create a solid body.
`create_sphere`	Create a sphere body defined by the center point and the radius.
`create_body_from_loft_profile`	Create a lofted body from a collection of trimmed curves.
`create_surface`	Create a surface body with a sketch profile.
`create_surface_from_face`	Create a surface body based on a face.
`create_coordinate_system`	Create a coordinate system.
`translate_bodies`	Translate the bodies in a specified direction by a distance.
`create_beams`	Create beams under the component.
`create_beam`	Create a beam under the component.
`delete_component`	Delete a component (itself or its children).
`delete_body`	Delete a body belonging to this component (or its children).
`add_design_point`	Create a single design point.
`add_design_points`	Create a list of design points.
`delete_beam`	Delete an existing beam belonging to this component’s scope.
`search_component`	Search nested components recursively for a component.
`search_body`	Search bodies in the component’s scope.
`search_beam`	Search beams in the component’s scope.
`tessellate`	Tessellate the component.
`plot`	Plot the component.

Properties

`id`	ID of the component.
`name`	Name of the component.
`components`	List of `Component` objects inside of the component.
`bodies`	List of `Body` objects inside of the component.
`beams`	List of `Beam` objects inside of the component.
`design_points`	List of `DesignPoint` objects inside of the component.
`coordinate_systems`	List of `CoordinateSystem` objects inside of the component.
`parent_component`	Parent of the component.
`is_alive`	Whether the component is still alive on the server side.
`shared_topology`	Shared topology type of the component (if any).

Special methods

__repr__

Represent the Component as a string.

Import detail#

from ansys.geometry.core.designer.component import Component

Property detail#

property Component.id: str#: ID of the component.

property Component.name: str#: Name of the component.

property Component.components: beartype.typing.List[Component]#: List of Component objects inside of the component.

property Component.bodies: beartype.typing.List[ansys.geometry.core.designer.body.Body]#: List of Body objects inside of the component.

property Component.beams: beartype.typing.List[ansys.geometry.core.designer.beam.Beam]#: List of Beam objects inside of the component.

property Component.design_points: beartype.typing.List[ansys.geometry.core.designer.designpoint.DesignPoint]#: List of DesignPoint objects inside of the component.

property Component.coordinate_systems: beartype.typing.List[ansys.geometry.core.designer.coordinate_system.CoordinateSystem]#: List of CoordinateSystem objects inside of the component.

property Component.parent_component: beartype.typing.Union[Component, None]#: Parent of the component.

property Component.is_alive: bool#: Whether the component is still alive on the server side.

property Component.shared_topology: beartype.typing.Union[SharedTopologyType, None]#

Shared topology type of the component (if any).

Notes

If no shared topology has been set, None is returned.

Method detail#

Component.get_world_transform() → ansys.geometry.core.math.matrix.Matrix44#

Get the full transformation matrix of the component in world space.

Returns:

Matrix44: 4x4 transformation matrix of the component in world space.

Component.modify_placement(translation: beartype.typing.Optional[ansys.geometry.core.math.vector.Vector3D] = None, rotation_origin: beartype.typing.Optional[ansys.geometry.core.math.point.Point3D] = None, rotation_direction: beartype.typing.Optional[ansys.geometry.core.math.vector.UnitVector3D] = None, rotation_angle: beartype.typing.Union[pint.Quantity, ansys.geometry.core.misc.measurements.Angle, ansys.geometry.core.typing.Real] = 0)#

Apply a translation and/or rotation to the placement matrix.

Parameters:

translationVector3D, default: None: Vector that defines the desired translation to the component.
rotation_originPoint3D, default: None: Origin that defines the axis to rotate the component about.
rotation_directionUnitVector3D, default: None: Direction of the axis to rotate the component about.
rotation_angleUnion[Quantity, Angle, Real], default: 0: Angle to rotate the component around the axis.

Notes

To reset a component’s placement to an identity matrix, see reset_placement() or call modify_placement() with no arguments.

Component.reset_placement()#

Reset a component’s placement matrix to an identity matrix.

See modify_placement().

Component.add_component(name: str, template: beartype.typing.Optional[Component] = None) → Component#

Add a new component under this component within the design assembly.

Parameters:

namestr: User-defined label for the new component.
templateComponent, default: None: Template to create this component from. This creates an instance component that shares a master with the template component.

Returns:

Component: New component with no children in the design assembly.

Component.set_shared_topology(share_type: SharedTopologyType) → None#

Set the shared topology to apply to the component.

Parameters:

share_typeSharedTopologyType: Shared topology type to assign to the component.

Component.extrude_sketch(name: str, sketch: ansys.geometry.core.sketch.sketch.Sketch, distance: beartype.typing.Union[pint.Quantity, ansys.geometry.core.misc.measurements.Distance, ansys.geometry.core.typing.Real], direction: beartype.typing.Union[ExtrusionDirection, str] = ExtrusionDirection.POSITIVE) → ansys.geometry.core.designer.body.Body#

Create a solid body by extruding the sketch profile a distance.

Parameters:

namestr: User-defined label for the new solid body.
sketchSketch: Two-dimensional sketch source for the extrusion.
distanceUnion[Quantity, Distance, Real]: Distance to extrude the solid body.
directionUnion[ExtrusionDirection, str], default: “+”: Direction for extruding the solid body. The default is to extrude in the positive normal direction of the sketch. Options are “+” and “-” as a string, or the enum values.

Returns:

Body: Extruded body from the given sketch.

Notes

The newly created body is placed under this component within the design assembly.

Component.sweep_sketch(name: str, sketch: ansys.geometry.core.sketch.sketch.Sketch, path: beartype.typing.List[ansys.geometry.core.shapes.curves.trimmed_curve.TrimmedCurve]) → ansys.geometry.core.designer.body.Body#

Create a body by sweeping a planar profile along a path.

Parameters:

namestr: User-defined label for the new solid body.
sketchSketch: Two-dimensional sketch source for the extrusion.
pathList[TrimmedCurve]: The path to sweep the profile along.

Returns:

Body: Created body from the given sketch.

Notes

The newly created body is placed under this component within the design assembly.

Component.sweep_chain(name: str, path: beartype.typing.List[ansys.geometry.core.shapes.curves.trimmed_curve.TrimmedCurve], chain: beartype.typing.List[ansys.geometry.core.shapes.curves.trimmed_curve.TrimmedCurve]) → ansys.geometry.core.designer.body.Body#

Create a body by sweeping a chain of curves along a path.

Parameters:

namestr: User-defined label for the new solid body.
pathList[TrimmedCurve]: The path to sweep the chain along.
chainList[TrimmedCurve]: A chain of trimmed curves.

Returns:

Body: Created body from the given sketch.

Notes

The newly created body is placed under this component within the design assembly.

Component.revolve_sketch(name: str, sketch: ansys.geometry.core.sketch.sketch.Sketch, axis: ansys.geometry.core.math.vector.Vector3D, angle: beartype.typing.Union[pint.Quantity, ansys.geometry.core.misc.measurements.Angle, ansys.geometry.core.typing.Real], rotation_origin: ansys.geometry.core.math.point.Point3D) → ansys.geometry.core.designer.body.Body#

Create a solid body by revolving a sketch profile around an axis.

Parameters:

namestr: User-defined label for the new solid body.
sketchSketch: Two-dimensional sketch source for the revolve.
axisVector3D: Axis of rotation for the revolve.
angleUnion[Quantity, Angle, Real]: Angle to revolve the solid body around the axis. The angle can be positive or negative.
rotation_originPoint3D: Origin of the axis of rotation.

Returns:

Body: Revolved body from the given sketch.

Notes

It is important that the sketch plane origin is not coincident with the rotation origin. If the sketch plane origin is coincident with the rotation origin, the distance between the two points is zero, and the revolve operation fails.

Component.extrude_face(name: str, face: ansys.geometry.core.designer.face.Face, distance: beartype.typing.Union[pint.Quantity, ansys.geometry.core.misc.measurements.Distance], direction: beartype.typing.Union[ExtrusionDirection, str] = ExtrusionDirection.POSITIVE) → ansys.geometry.core.designer.body.Body#

Extrude the face profile by a given distance to create a solid body.

There are no modifications against the body containing the source face.

Parameters:

namestr: User-defined label for the new solid body.
faceFace: Target face to use as the source for the new surface.
distanceUnion[Quantity, Distance, Real]: Distance to extrude the solid body.
directionUnion[ExtrusionDirection, str], default: “+”: Direction for extruding the solid body’s face. The default is to extrude in the positive normal direction of the face. Options are “+” and “-” as a string, or the enum values.

Returns:

Body: Extruded solid body.

Notes

The source face can be anywhere within the design component hierarchy. Therefore, there is no validation requiring that the face is placed under the target component where the body is to be created.

Component.create_sphere(name: str, center: ansys.geometry.core.math.point.Point3D, radius: ansys.geometry.core.misc.measurements.Distance) → ansys.geometry.core.designer.body.Body#

Create a sphere body defined by the center point and the radius.

Parameters:

namestr: Body name.
centerPoint3D: Center point of the sphere.
radiusDistance: Radius of the sphere.

Returns:

Body: Sphere body object.

Component.create_body_from_loft_profile(name: str, profiles: beartype.typing.List[beartype.typing.List[ansys.geometry.core.shapes.curves.trimmed_curve.TrimmedCurve]], periodic: bool = False, ruled: bool = False) → ansys.geometry.core.designer.body.Body#

Create a lofted body from a collection of trimmed curves.

Parameters:

namestr: Name of the lofted body.
profilesList[List[TrimmedCurve]]: Collection of lists of trimmed curves (profiles) defining the lofted body’s shape.
periodicbool, default: False: Whether the lofted body should have periodic continuity.
ruledbool: Whether the lofted body should be ruled.

Returns:

Body: Created lofted body object.

Notes

Surfaces produced have a U parameter in the direction of the profile curves, and a V parameter in the direction of lofting. Profiles can have different numbers of segments. A minimum twist solution is produced. Profiles should be all closed or all open. Closed profiles cannot contain inner loops. If closed profiles are supplied, a closed (solid) body is produced, if possible. Otherwise, an open (sheet) body is produced. The periodic argument applies when the profiles are closed. It is ignored if the profiles are open.

If periodic=True, at least three profiles must be supplied. The loft continues from the last profile back to the first profile to produce surfaces that are periodic in V.

If periodic=False, at least two profiles must be supplied. If the first and last profiles are planar, end capping faces are created. Otherwise, an open (sheet) body is produced. If ruled=True, separate ruled surfaces are produced between each pair of profiles. If periodic=True, the loft continues from the last profile back to the first profile, but the surfaces are not periodic.

Component.create_surface(name: str, sketch: ansys.geometry.core.sketch.sketch.Sketch) → ansys.geometry.core.designer.body.Body#

Create a surface body with a sketch profile.

The newly created body is placed under this component within the design assembly.

Parameters:

namestr: User-defined label for the new surface body.
sketchSketch: Two-dimensional sketch source for the surface definition.

Returns:

Body: Body (as a planar surface) from the given sketch.

Component.create_surface_from_face(name: str, face: ansys.geometry.core.designer.face.Face) → ansys.geometry.core.designer.body.Body#

Create a surface body based on a face.

Parameters:

namestr: User-defined label for the new surface body.
faceFace: Target face to use as the source for the new surface.

Returns:

Body: Surface body.

Notes

The source face can be anywhere within the design component hierarchy. Therefore, there is no validation requiring that the face is placed under the target component where the body is to be created.

Component.create_coordinate_system(name: str, frame: ansys.geometry.core.math.frame.Frame) → ansys.geometry.core.designer.coordinate_system.CoordinateSystem#

Create a coordinate system.

The newly created coordinate system is place under this component within the design assembly.

Parameters:

namestr: User-defined label for the new coordinate system.
frameFrame: Frame defining the coordinate system bounds.

Returns:

CoordinateSystem

Component.translate_bodies(bodies: beartype.typing.List[ansys.geometry.core.designer.body.Body], direction: ansys.geometry.core.math.vector.UnitVector3D, distance: beartype.typing.Union[pint.Quantity, ansys.geometry.core.misc.measurements.Distance, ansys.geometry.core.typing.Real]) → None#

Translate the bodies in a specified direction by a distance.

Parameters:

bodies: List[Body]: List of bodies to translate by the same distance.
direction: UnitVector3D: Direction of the translation.
distance: Union[~pint.Quantity, Distance, Real]: Magnitude of the translation.

Returns:

None

Notes

If the body does not belong to this component (or its children), it is not translated.

Component.create_beams(segments: beartype.typing.List[beartype.typing.Tuple[ansys.geometry.core.math.point.Point3D, ansys.geometry.core.math.point.Point3D]], profile: ansys.geometry.core.designer.beam.BeamProfile) → beartype.typing.List[ansys.geometry.core.designer.beam.Beam]#

Create beams under the component.

Parameters:

segmentsList[Tuple[Point3D, Point3D]]: List of start and end pairs, each specifying a single line segment.
profileBeamProfile: Beam profile to use to create the beams.

Notes

The newly created beams synchronize to a design within a supporting Geometry service instance.

Component.create_beam(start: ansys.geometry.core.math.point.Point3D, end: ansys.geometry.core.math.point.Point3D, profile: ansys.geometry.core.designer.beam.BeamProfile) → ansys.geometry.core.designer.beam.Beam#

Create a beam under the component.

The newly created beam synchronizes to a design within a supporting Geometry service instance.

Parameters:

startPoint3D: Starting point of the beam line segment.
endPoint3D: Ending point of the beam line segment.
profileBeamProfile: Beam profile to use to create the beam.

Component.delete_component(component: beartype.typing.Union[Component, str]) → None#

Delete a component (itself or its children).

Parameters:

componentUnion[Component, str]: ID of the component or instance to delete.

Notes

If the component is not this component (or its children), it is not deleted.

Component.delete_body(body: beartype.typing.Union[ansys.geometry.core.designer.body.Body, str]) → None#

Delete a body belonging to this component (or its children).

Parameters:

bodyUnion[Body, str]: ID of the body or instance to delete.

Notes

If the body does not belong to this component (or its children), it is not deleted.

Component.add_design_point(name: str, point: ansys.geometry.core.math.point.Point3D) → ansys.geometry.core.designer.designpoint.DesignPoint#

Create a single design point.

Parameters:

namestr: User-defined label for the design points.
pointsPoint3D: 3D point constituting the design point.

Component.add_design_points(name: str, points: beartype.typing.List[ansys.geometry.core.math.point.Point3D]) → beartype.typing.List[ansys.geometry.core.designer.designpoint.DesignPoint]#

Create a list of design points.

Parameters:

namestr: User-defined label for the list of design points.
pointsList[Point3D]: List of the 3D points that constitute the list of design points.

Component.delete_beam(beam: beartype.typing.Union[ansys.geometry.core.designer.beam.Beam, str]) → None#

Delete an existing beam belonging to this component’s scope.

Parameters:

beamUnion[Beam, str]: ID of the beam or instance to delete.

Notes

If the beam belongs to this component’s children, it is deleted. If the beam does not belong to this component (or its children), it is not deleted.

Component.search_component(id: str) → beartype.typing.Union[Component, None]#

Search nested components recursively for a component.

Parameters:

idstr: ID of the component to search for.

Returns:

Component: Component with the requested ID. If this ID is not found, None is returned.

Component.search_body(id: str) → beartype.typing.Union[ansys.geometry.core.designer.body.Body, None]#

Search bodies in the component’s scope.

Parameters:

idstr: ID of the body to search for.

Returns:

Body: Body with the requested ID. If the ID is not found, None is returned.

Notes

This method searches for bodies in the component and nested components recursively.

Component.search_beam(id: str) → beartype.typing.Union[ansys.geometry.core.designer.beam.Beam, None]#

Search beams in the component’s scope.

Parameters:

idstr: ID of the beam to search for.

Returns:

Union[Beam, None]: Beam with the requested ID. If the ID is not found, None is returned.

Notes

This method searches for beams in the component and nested components recursively.

Component.tessellate(merge_component: bool = False, merge_bodies: bool = False) → beartype.typing.Union[pyvista.PolyData, pyvista.MultiBlock]#

Tessellate the component.

Parameters:

merge_componentbool, default: False: Whether to merge this component into a single dataset. When True, all the individual bodies are effectively combined into a single dataset without any hierarchy.
merge_bodiesbool, default: False: Whether to merge each body into a single dataset. When True, all the faces of each individual body are effectively merged into a single dataset without separating faces.

Returns:

PolyData, MultiBlock: Merged pyvista.PolyData if merge_component=True or a composite dataset.

Examples

Create two stacked bodies and return the tessellation as two merged bodies:

>>> from ansys.geometry.core.sketch import Sketch
>>> from ansys.geometry.core import Modeler
>>> from ansys.geometry.core.math import Point2D, Point3D, Plane
>>> from ansys.geometry.core.misc import UNITS
>>> modeler = Modeler("10.54.0.72", "50051")
>>> sketch_1 = Sketch()
>>> box = sketch_1.box(
>>>    Point2D([10, 10], UNITS.m), Quantity(10, UNITS.m), Quantity(5, UNITS.m))
>>> sketch_1.circle(Point2D([0, 0], UNITS.m), Quantity(25, UNITS.m))
>>> design = modeler.create_design("MyDesign")
>>> comp = design.add_component("MyComponent")
>>> distance = Quantity(10, UNITS.m)
>>> body = comp.extrude_sketch("Body", sketch=sketch_1, distance=distance)
>>> sketch_2 = Sketch(Plane([0, 0, 10]))
>>> box = sketch_2.box(
>>>    Point2D([10, 10], UNITS.m), Quantity(10, UNITS.m), Quantity(5, UNITS.m))
>>> circle = sketch_2.circle(Point2D([0, 0], UNITS.m), Quantity(25, UNITS.m))
>>> body = comp.extrude_sketch("Body", sketch=sketch_2, distance=distance)
>>> dataset = comp.tessellate(merge_bodies=True)
>>> dataset
MultiBlock (0x7ff6bcb511e0)
  N Blocks:     2
  X Bounds:     -25.000, 25.000
  Y Bounds:     -24.991, 24.991
  Z Bounds:     0.000, 20.000

Component.plot(merge_component: bool = False, merge_bodies: bool = False, screenshot: beartype.typing.Optional[str] = None, use_trame: beartype.typing.Optional[bool] = None, **plotting_options: beartype.typing.Optional[dict]) → None#

Plot the component.

Parameters:

merge_componentbool, default: False: Whether to merge the component into a single dataset. When True, all the individual bodies are effectively merged into a single dataset without any hierarchy.
merge_bodiesbool, default: False: Whether to merge each body into a single dataset. When True, all the faces of each individual body are effectively merged into a single dataset without separating faces.
screenshotstr, default: None: Path for saving a screenshot of the image being represented.
use_tramebool, default: None: Whether to enable the use of trame. The default is None, in which case the USE_TRAME global setting is used.
**plotting_optionsdict, default: None: Keyword arguments for plotting. For allowable keyword arguments, see the

Examples

Create 25 small cylinders in a grid-like pattern on the XY plane and plot them. Make the cylinders look metallic by enabling physically-based rendering with pbr=True.

>>> from ansys.geometry.core.misc.units import UNITS as u
>>> from ansys.geometry.core.sketch import Sketch
>>> from ansys.geometry.core.math import Plane, Point2D, Point3D, UnitVector3D
>>> from ansys.geometry.core import Modeler
>>> import numpy as np
>>> modeler = Modeler()
>>> origin = Point3D([0, 0, 0])
>>> plane = Plane(origin, direction_x=[1, 0, 0], direction_y=[0, 1, 0])
>>> design = modeler.create_design("my-design")
>>> mycomp = design.add_component("my-comp")
>>> n = 5
>>> xx, yy = np.meshgrid(
...     np.linspace(-4, 4, n),
...     np.linspace(-4, 4, n),
... )
>>> for x, y in zip(xx.ravel(), yy.ravel()):
...     sketch = Sketch(plane)
...     sketch.circle(Point2D([x, y]), 0.2*u.m)
...     mycomp.extrude_sketch(f"body-{x}-{y}", sketch, 1 * u.m)
>>> mycomp
ansys.geometry.core.designer.Component 0x2203cc9ec50
    Name                 : my-comp
    Exists               : True
    Parent component     : my-design
    N Bodies             : 25
    N Components         : 0
    N Coordinate Systems : 0
>>> mycomp.plot(pbr=True, metallic=1.0)

Component.__repr__() → str#: Represent the Component as a string.