olic_child#

class ansys.fluent.core.generated.solver.settings_261.olic_child(name=None, parent=None)#

Bases: Group

‘child_object_type’ of olic.

Attributes

Attribute	Summary
name	A name for an object.
field	One of the coloring options.
vector_field	Specifies whether the vectors represent velocity or relative velocity.
vector_phase	‘vector_phase’ child.
surfaces_list	The planar surface(s) where you want the results displayed.
locations	‘locations’ child.
lic_color_by_field	‘lic_color_by_field’ child.
lic_color	‘lic_color’ child.
lic_oriented	‘lic_oriented’ child.
lic_normalize	Normalizes the vector field magnitude during the integration.
lic_pixel_interpolation	‘lic_pixel_interpolation’ child.
lic_max_steps	Provide value for maximum number of steps used [5, 50].
texture_spacing	Provide seed spacing value [4, 100].
texture_size	The Texture Size slider to control the size (in 100’s of pixels) of the texture image used in.
lic_intensity_factor	Scales the intensity levels of the convolution results up or down. You can use this to control
lic_image_filter	Applies an image filter to the convolutions.
lic_intensity_alpha	Make background either transparent or opaque.
lic_fast	‘lic_fast’ child.
gray_scale	‘gray_scale’ child.
image_to_display	‘image_to_display’ child.
range_option	Specifies whether you want the range to be Global, Local to the selected surface(s), or Custom.
range_options	Range using the min max options.
color_map	Coloring using the colormap panel.
draw_mesh	Specifies whether you would like to display the mesh alongside your graphics object.
mesh_object	Properties for your mesh object.
display_state_name	Display state settings selection by name.
annotations_list	The annotation objects to be added to this graphics object.

Methods

Method	Summary
display	Displays the selected graphics object type in the graphics viewer.

Included in:

Parent	Summary
olic	An OLIC object is a specialized visualization tool based on Oriented Line Integral Convolution. It enhances the standard LIC (Line Integral Convolution) by adding directional cues to the vector field, allowing users to interpret both direction and flow orientation rather than just structure.