The CubitInterface provides a Python/C++ interface into Cubit. More...

Classes
class	AssemblyItem
	Class to implement assembly tree interface. More...

class	Body
	Defines a body object that mostly parallels Cubit's Body class. More...

class	CFD_BC_Entity
	Class to implement cfd bc data retrieval. More...

class	CubitFailureException
	An exception class to alert the caller when the underlying Cubit function fails. More...

class	Curve
	Defines a curve object that mostly parallels Cubit's RefEdge class. More...

class	Dir
	Defines a direction object. More...

class	Entity
	The base class of all the geometry and mesh types. More...

class	GeomEntity
	The base class for specifically the Geometry types (Body, Surface, etc.) More...

class	InvalidEntityException
	An exception class to alert the caller that an invalid entity was attempted to be used. Likely the user is attempting to use an Entity who's underlying CubitEntity has been deleted. More...

class	InvalidInputException
	An exception class to alert the caller of a function that invalid inputs were entered. More...

class	Loc
	Defines a location object. More...

class	MeshErrorFeedback
	Class to implement mesh command feedback processing. More...

class	Surface
	Defines a surface object that mostly parallels Cubit's RefFace class. More...

class	Vertex
	Defines a vertex object that mostly parallels Cubit's RefVertex class. More...

class	Volume
	Defines a volume object that mostly parallels Cubit's RefVolume class. More...

Functions
System Control and Data
void	set_progress_handler (CubitProgressHandler *progress)
	Register a progress-bar callback handler with Cubit. Deletes the current progress handler if it exists.

CubitProgressHandler *	replace_progress_handler (CubitProgressHandler *progress)
	Register a new progress-bar callback handler with Cubit and return the the previous progress-handler without deleting it.

void	set_cubit_interrupt (bool interrupt)
	This sets the global flag in Cubit that stops all interruptable processes.

void	set_playback_paused_on_error (bool pause)
	Sets whether or not playback is paused when an error occurs.

bool	is_playback_paused_on_error ()
	Gets whether or not playback is paused when an error occurs.

bool	developer_commands_are_enabled ()
	This checks to see whether developer commands are enabled.

CubitBaseInterface *	get_interface (std::string interface_name)
	Get the interface of a given name.

bool	release_interface (CubitBaseInterface *instance)
	Release the interface with the given name.

CubitPluginManager *	plugin_manager ()

void	add_filename_to_recent_file_list (std::string &filename)
	Adds the filename to the recent file list.

std::string	get_version ()
	Get the Cubit version.

std::string	get_revision_date ()
	Get the Cubit revision date.

std::string	get_build_number ()
	Get the Cubit build number.

std::string	get_acis_version ()
	Get the Acis version number.

int	get_acis_version_as_int ()
	Get the Acis version number as an int.

std::string	get_exodus_version ()
	Get the Exodus version number.

std::string	get_meshgems_version ()
	Get the MeshGems version number.

double	get_cubit_digits_setting ()
	Get the Cubit digits setting.

std::string	get_graphics_version ()
	Get the VTK version number.

std::string	get_python_version ()
	get the python version used in cubit

void	print_cmd_options ()
	Used to print the command line options.

bool	is_modified ()
	Get the modified status of the model.

void	set_modified ()
	Set the status of the model (is_modified() is now false). If you modify the model after you set this flag, it will register true.

bool	is_undo_save_needed ()
	Get the status of the model relative to undo checkpointing.

void	set_undo_saved ()
	Set the status of the model relative to undo checkpointin.

bool	is_performing_undo ()
	Check if an undo command is currently being performed.

bool	is_command_echoed ()
	Check the echo flag in cubit.

std::string	get_command_from_history (int command_number)
	Get a specific command from Cubit's command history buffer.

std::string	get_next_command_from_history ()
	Get 'next' command from history buffer.

std::string	get_previous_command_from_history ()
	Get 'previous' command from history buffer.

bool	is_volume_meshable (int volume_id)
	Check if volume is meshable with current scheme.

bool	is_surface_meshable (int surface_id)
	Check if surface is meshable with current scheme.

void	journal_commands (bool state)
	Set the journaling flag in cubit.

bool	is_command_journaled ()
	Check the journaling flag in cubit.

void	write_to_journal (std::string words)
	Write a string to the active journal.

void	override_journal_stream (JournalStreamBase *jnl_stream)
	Override the Journal Stream in CUBIT.

std::string	get_current_journal_file ()
	Gets the current journal file name.

bool	is_working_dir_set ()
	Create BCVizInterface for CompSimUI.

bool	cmd (const char *input_string)
	Pass a command string into Cubit.

bool	silent_cmd (const char *input_string)
	Pass a command string into Cubit and have it executed without being verbose at the command prompt.

bool	was_last_cmd_undoable ()
	Report whether the last executed command was undoable.

std::vector< int >	parse_cubit_list (const std::string &type, std::string entity_list_string)
	Parse a Cubit style entity list into a list of integers.

std::string	string_from_id_list (std::vector< int > ids)
	Parse a list of integers into a Cubit style id list. Includes carriage return and line breaks at column 80.

std::string	get_id_string (const std::vector< int > &entity_ids)
	Parse a list of integers into a Cubit style id list. Return string will not include carriage returns or line break.

void	print_raw_help (const char *input_line, int order_dependent, int consecutive_dependent)
	Used to print out help when a ?, & or ! is pressed.

int	get_error_count ()
	Get the number of errors in the current Cubit session.

std::vector< std::string >	get_mesh_error_solutions (int error_code)
	Get the paired list of mesh error solutions and help context cues.

void	complete_filename (std::string &line, int &num_chars, bool &found_quote)
	Get the file completion inside a quote based on files in the current directory. This handles completion of directories as well as filtering on specific types (.jou, .g, .sat, etc.)

Graphics Manipulation and Data
double	get_view_distance ()
	Get the distance from the camera to the model (from - at)

std::array< double, 3 >	get_view_at ()
	Get the camera 'at' point.

std::array< double, 3 >	get_view_from ()
	Get the camera 'from' point.

std::array< double, 3 >	get_view_up ()
	Get the camera 'up' direction.

void	reset_camera ()
	reset the camera in all open windows this includes resetting the view, closing the histogram and color windows and clearing the scalar bar, highlight, and picked entities.

void	flush_graphics ()
	Flush the graphics.

void	clear_drawing_set (const std::string &set_name)
	Clear a named drawing set (this is for mesh preview)

void	unselect_entity (const std::string &entity_type, int entity_id)
	Unselect an entity that is currently selected.

int	get_rubberband_shape ()
	Get the current rubberband select mode.

bool	is_perspective_on ()
	Get the current perspective mode.

bool	is_occlusion_on ()
	Get the current occlusion mode.

bool	is_scale_visibility_on ()
	Get the current scale visibility setting.

bool	is_mesh_visibility_on ()
	Get the current mesh visibility setting.

bool	is_geometry_visibility_on ()
	Get the current geometry visibility setting.

bool	is_select_partial_on ()
	Get the current select partial setting.

int	get_rendering_mode ()
	Get the current rendering mode.

void	set_rendering_mode (int mode)
	Set the current rendering mode.

void	clear_highlight ()
	Clear all entity highlights.

void	clear_preview ()
	Clear preview graphics without affecting other display settings.

void	highlight (const std::string &entity_type, int entity_id)
	Highlight the given entity.

std::vector< int >	get_selected_ids ()
	Get a list of the currently selected ids.

int	get_selected_id (int index)
	Get the selected id based on an index.

std::string	get_selected_type (int index)
	Get the selected type based on an index.

const char *	get_pick_type ()
	Get the current pick type.

void	set_pick_type (const std::string &pick_type, bool silent=false)
	Set the pick type.

void	set_filter_types (int num_types, const std::vector< std::string > filter_types)
	Set the pick filter types.

void	add_filter_type (const std::string &filter_type)
	Add a filter type.

void	remove_filter_type (const std::string &filter_type)
	Remove a filter type.

bool	is_type_filtered (const std::string &filter_type)
	Determine whether a type is filtered.

std::vector< std::string >	get_pick_filters ()
	Get a list of the current pick filters.

void	clear_picked_list ()
	Clear the picked list.

void	step_next_possible_selection ()
	Step to the next possible selection (selected next dialog)

void	step_previous_possible_selection ()
	Step to the previous possible selection (selected next dialog)

void	print_current_selections ()
	Print the current selections.

void	print_currently_selected_entity ()
	Print the current selection.

int	current_selection_count ()
	Get the current count of selected items.

Mesh Query Support
double	get_mesh_edge_length (int edge_id)
	Get the length of a mesh edge.

double	estimate_curve_mesh_size (int curve_id, double percent_capture)
	Return estimated mesh size for a curve such that the sum of edge lengths are within a precentage of the curve length.

double	estimate_curves_mesh_size (const std::string &geometry_type, const std::vector< int > &geom_id, double percent_capture)
	Return estimated mesh size for curves related to an entity such that the sum of edge lengths are within a precentage of the curve length. The smallest size for all curves is returned.

size_t	estimate_morph_tet_element_count (const std::vector< int > &volume_ids, double size, bool keep_void)
	Return estimated tet element count for volumes.

int	estimate_morph_num_procs (const std::vector< int > &volume_ids, double size)
	Return recommended numprocs to run morph on this model at the specified size.

double	get_meshed_volume_or_area (const std::string &geometry_type, std::vector< int > entity_ids)
	Get the total volume/area of a entity's mesh.

int	get_mesh_intervals (const std::string &geometry_type, int entity_id)
	Get the interval count for a specified entity.

double	get_mesh_size (const std::string &geometry_type, int entity_id)
	Get the mesh size for a specified entity.

double	get_requested_mesh_size (const std::string &geometry_type, int id)
	Get the requested mesh size for a specified entity. This returns a size that has been set specifically on the entity and not averaged from parents.

int	has_valid_size (const std::string &geometry_type, int entity_id)
	Get whether an entity has a size. All entities have a size unless the auto sizing is off. If the auto sizing is off, an entity has a size only if it has been set.

bool	auto_size_needs_to_be_calculated ()
	Get whether the auto size needs to be calculated. Calculating the auto size may be expensive on complex models. The auto size may be outdated if the model has changed.

double	get_default_auto_size ()
	Get auto size needs for the current set of geometry.

int	get_requested_mesh_intervals (const std::string &geometry_type, int entity_id)
	Get the interval count for a specified entity as set specifically on that entity.

double	get_auto_size (const std::string &geometry_type, std::vector< int > entity_id_list, double size)
	Get the auto size for a given set of enitities. Note, this does not actually set the interval size on the volumes. It simply returns the size that would be set if an 'size auto factor n' command were issued.

int	get_element_budget (const std::string &element_type, std::vector< int > entity_id_list, int auto_factor)
	Get the element budget based on current size settings for a list of volumes.

std::string	get_exodus_sizing_function_variable_name ()
	Get the exodus sizing function variable name.

std::string	get_exodus_sizing_function_file_name ()
	Get the exodus sizing function file name.

std::string	get_sizing_function_name (const std::string &entity_type, int surface_id)
	Get the sizing function name for a surface or volume.

bool	exodus_sizing_function_file_exists ()
	return whether the exodus sizing funnction file exists

bool	get_vol_sphere_params (std::vector< int > sphere_id_list, int &rad_intervals, int &az_intervals, double &bias, double &fract, int &max_smooth_iterations)
	get the current sphere parameters for a sphere volume

std::string	get_curve_bias_type (int curve_id)

double	get_curve_bias_geometric_factor (int curve_id)

double	get_curve_bias_geometric_factor2 (int curve_id)

double	get_curve_bias_first_interval_length (int curve_id)

double	get_curve_bias_first_interval_fraction (int curve_id)

double	get_curve_bias_fine_size (int curve_id)

double	get_curve_bias_coarse_size (int curve_id)

double	get_curve_bias_first_last_ratio1 (int curve_id)

double	get_curve_bias_first_last_ratio2 (int curve_id)

double	get_curve_bias_last_first_ratio1 (int curve_id)

double	get_curve_bias_last_first_ratio2 (int curve_id)

bool	get_curve_bias_from_start (int curve_id, bool &value)

bool	get_curve_bias_from_start_set (int curve_id)

int	get_curve_bias_start_vertex_id (int curve_id)

double	get_curve_mesh_scheme_curvature (int curve_id)
	Get the curvature mesh scheme value of a curve.

bool	get_curve_mesh_scheme_stretch_values (int curve_id, double &first_size, double &factor, double &last_size, bool &start, int &vertex_id)

std::vector< double >	get_curve_mesh_scheme_pinpoint_locations (int curve_id)

void	get_quality_stats (const std::string &entity_type, std::vector< int > id_list, const std::string &metric_name, double single_threshold, bool use_low_threshold, double low_threshold, double high_threshold, double &min_value, double &max_value, double &mean_value, double &std_value, int &min_element_id, int &max_element_id, std::vector< int > &mesh_list, std::string &element_type, int &bad_group_id, bool make_group=false)
	Get the quality stats for a specified entity.

std::vector< double >	get_elem_quality_stats (const std::string &entity_type, const std::vector< int > id_list, const std::string &metric_name, const double single_threshold, const bool use_low_threshold, const double low_threshold, const double high_threshold, const bool make_group)
	python callable version of the get_quality_stats without pass by reference arguments. All return values are stuffed into a double array

std::vector< double >	get_quality_stats_at_geometry (const std::string &geom_type, const std::string &mesh_type, const std::vector< int > geom_id_list, const int expand_levels, const std::string &metric_name, const double single_threshold, const bool use_low_threshold, const double low_threshold, const double high_threshold, const bool make_group)
	get element quality at a list of geometry entities. Finds all elements with nodes ON/IN the specified geometry and finds the quality of all elements of the specfied element type that are connected. Same arguments and return values as get_elem_quality_stats except a geometry and element type are used as arguments

double	get_quality_value (const std::string &mesh_type, int mesh_id, const std::string &metric_name)
	Get the metric value for a specified mesh entity.

std::vector< double >	get_quality_values (const std::string &mesh_type, std::vector< int > mesh_ids, const std::string &metric_name)
	Get the metric values for specified mesh entities.

std::string	get_mesh_scheme (const std::string &geometry_type, int entity_id)
	Get the mesh scheme for the specified entity.

std::string	get_mesh_scheme_firmness (const std::string &geometry_type, int entity_id)
	Get the mesh scheme firmness for the specified entity.

std::string	get_mesh_interval_firmness (const std::string &geometry_type, int entity_id)
	Get the mesh interval firmness for the specified entity. This may include influence from connected mesh intervals on connected geometry.

std::string	get_requested_mesh_interval_firmness (const std::string &geometry_type, int entity_id)
	Get the mesh interval firmness for the specified entity as set specifically on the entity.

std::string	get_mesh_size_type (const std::string &geometry_type, int entity_id)
	Get the mesh size setting type for the specified entity. This may include influence from attached geometry.

std::string	get_requested_mesh_size_type (const std::string &geometry_type, int entity_id)
	Get the mesh size setting type for the specified entity as set specifically on the entity.

bool	get_tetmesh_proximity_flag (int volume_id)
	Get the proximity flag for tet meshing.

int	get_tetmesh_proximity_layers (int volume_id)
	Get the number of proximity layers for tet meshing. This is the number of layers between close surfaces.

double	get_tetmesh_growth_factor (int volume_id)
	Get the tetmesh growth factor.

bool	get_tetmesh_parallel ()
	Get the parallel flag for tet meshing. Defines whether to use parallel mesher.

int	get_tetmesh_num_anisotropic_layers ()
	Get the number of anisotropic tet layers. Global setting.

int	get_tetmesh_optimization_level ()
	Get the optimization level for tetmeshing. Global setting.

bool	get_tetmesh_insert_mid_nodes ()
	Get the state of the flag to insert midnodes during meshing. Global setting.

bool	get_tetmesh_optimize_mid_nodes ()
	Get the state of the flag to optimize midnodes during meshing. Global setting.

bool	get_tetmesh_optimize_overconstrained_tets ()
	Get the state of the flag to optimize overconstrained tets. Global setting.

bool	get_tetmesh_optimize_overconstrained_edges ()
	Get the state of the flag to optimize overconstrained edges. Global setting.

bool	get_tetmesh_minimize_slivers ()
	Get the state of the flag to minimize sliver tets. Global setting.

bool	get_tetmesh_minimize_interior_points ()
	Get the state of the flag to minimize interior points in tetmesher. Global setting.

bool	get_tetmesh_relax_surface_constraints ()
	Get the state of the flag to relax surface mesh constraints in tetmesher. Global setting.

double	get_mesh_geometry_approximation_angle (std::string geometry_type, int entity_id)
	Get the geometry approximation angle set for tri/tet meshing.

double	get_trimesh_surface_gradation ()
	Get the global surface mesh gradation set for meshing with MeshGems.

double	get_trimesh_volume_gradation ()
	Get the global volume mesh gradation set for meshing with MeshGems.

double	get_trimesh_target_min_size (std::string geom_type, int entity_id)
	Get the trimesh target min size for the entity. local setting for surfaces.

bool	get_trimesh_geometry_sizing ()
	Get the global geometry sizing flag for trimesher.

int	get_trimesh_num_anisotropic_layers ()
	Get the global number of anisotropic layers for trimeshing.

bool	get_trimesh_split_overconstrained_edges ()
	Get the global setting for trimesher split over-constrained edges.

int	best_edge_to_collapse_interior_node (int node_id)
	Finds the best edge to collapse this node along to remove the interior node.

double	get_trimesh_tiny_edge_length ()
	Get the global setting for tiny edge length in trimesher.

double	get_trimesh_ridge_angle ()
	Get the global setting for ridge angle in trimesher.

bool	is_meshed (const std::string &geometry_type, int entity_id)
	Determines whether a specified entity is meshed.

bool	is_merged (const std::string &geometry_type, int entity_id)
	Determines whether a specified entity is merged.

std::string	get_smooth_scheme (const std::string &geometry_type, int entity_id)
	Get the smooth scheme for a specified entity.

int	get_hex_count ()
	Get the count of hexes in the model.

int	get_pyramid_count ()
	Get the count of pyramids in the model.

int	get_tet_count ()
	Get the count of tets in the model.

int	get_quad_count ()
	Get the count of quads in the model.

int	get_tri_count ()
	Get the count of tris in the model.

int	get_edge_count ()
	Get the count of edges in the model.

int	get_sphere_count ()
	Get the count of sphere elements in the model.

int	get_wedge_count ()
	Get the count of wedge elements in the model.

int	get_node_count ()
	Get the count of nodes in the model.

int	get_element_count ()
	Get the count of elements in the model.

int	get_volume_element_count (int volume_id)
	Get the count of elements in a volume.

int	get_surface_element_count (int surface_id)
	Get the count of elements in a surface.

bool	volume_contains_tets (int volume_id)
	Determine whether a volume contains tets.

std::vector< int >	get_hex_sheet (int node_id_1, int node_id_2)
	Get the list of hex elements forming a hex sheet through the given two node ids. The nodes must be adjacent in the connectivity of the hex i.e. they form an edge of the hex.

std::string	get_default_element_type ()
	Get the current default setting for the element type that will be used when meshing.

Geometry Query Support
bool	is_visible (const std::string &geometry_type, int entity_id)
	Query visibility for a specific entity.

bool	is_virtual (const std::string &geometry_type, int entity_id)
	Query virtualality for a specific entity.

bool	contains_virtual (const std::string &geometry_type, int entity_id)
	Query virtualality of an entity's children.

std::vector< int >	get_source_surfaces (int volume_id)
	Get a list of a volume's sweep source surfaces.

std::vector< int >	get_target_surfaces (int volume_id)
	Get a list of a volume's sweep target surfaces.

int	get_common_curve_id (int surface_1_id, int surface_2_id)
	Given 2 surfaces, get the common curve id.

int	get_common_vertex_id (int curve_1_id, int curve_2_id)
	Given 2 curves, get the common vertex id.

std::vector< std::vector< double > >	project_unit_square (std::vector< std::vector< double > > pts, int surface_id, int quad_id, int node00_id, int node10_id)
	Given points in a unit square, map them to the given quad using the orientation info, then project them onto the given surface, and return their projected positions.

std::string	get_merge_setting (const std::string &geometry_type, int entity_id)
	Get the merge setting for a specified entity.

std::string	get_curve_type (int curve_id)
	Get the curve type for a specified curve.

std::string	get_surface_type (int surface_id)
	Get the surface type for a specified surface.

std::array< double, 3 >	get_surface_normal (int surface_id)
	Get the surface normal for a specified surface.

std::array< double, 3 >	get_surface_normal_at_coord (int surface_id, std::array< double, 3 >)
	Get the surface normal for a specified surface at a location.

std::array< double, 3 >	get_surface_centroid (int surface_id)
	Get the surface centroid for a specified surface.

std::string	get_surface_sense (int surface_id)
	Get the surface sense for a specified surface.

std::vector< std::string >	get_entity_modeler_engine (const std::string &geometry_type, int entity_id)
	Get the modeler engine type for a specified entity.

std::string	get_default_geometry_engine ()
	Get the name of the default modeler engine.

std::array< double, 10 >	get_bounding_box (const std::string &geometry_type, int entity_id)
	Get the bounding box for a specified entity.

std::array< double, 10 >	get_total_bounding_box (const std::string &geometry_type, std::vector< int > entity_list)
	Get the bounding box for a list of entities.

std::array< double, 15 >	get_tight_bounding_box (const std::string &geometry_type, std::vector< int > entity_list)
	Get the tight bounding box for a list of entities.

double	get_total_volume (std::vector< int > volume_list)
	Get the total volume for a list of volume ids.

std::string	get_entity_name (const std::string &entity_type, int entity_id, bool no_default=false)
	Get the name of a specified entity.

std::vector< std::string >	get_entity_names (const std::string &entity_type, int entity_id, bool no_default=false, bool first_name_only=false)
	same as get_entity_name but includes all name attributes set on the entity, not just the first one (unless first_name_only is set)

bool	set_entity_name (const std::string &entity_type, int entity_id, const std::string &new_name)
	Set the name of a specified entity.

std::array< double, 4 >	get_entity_color (const std::string &entity_type, int entity_id)
	Get the color of a specified entity.

int	get_entity_color_index (const std::string &entity_type, int entity_id)

bool	is_multi_volume (int body_id)
	Query whether a specified body is a multi volume body.

bool	is_sheet_body (int volume_id)
	Query whether a specified volume is a sheet body.

bool	is_interval_count_odd (int surface_id)
	Query whether a specified surface has an odd loop.

bool	is_periodic (const std::string &geometry_type, int entity_id)
	Query whether a specified surface or curve is periodic.

bool	is_surface_planer (int surface_id)
	Query whether a specified surface is planer.

bool	is_surface_planar (int surface_id)

void	get_periodic_data (const std::string &geometry_type, int entity_id, double &returned_interval, std::string &returned_firmness, int &returned_lower_bound, std::string &returned_upper_bound)
	Get the periodic data for a surface or curve.

bool	get_undo_enabled ()
	Query whether undo is currently enabled.

int	number_undo_commands ()
	Query whether there are any undo commands to execute.

std::vector< std::string >	get_aprepro_vars ()
	Gets the current aprepro variable names.

std::string	get_aprepro_value_as_string (std::string variable_name)
	Gets the string value of an aprepro variable.

bool	get_aprepro_value (std::string variable_name, int &returned_variable_type, double &returned_double_val, std::string &returned_string_val)
	Get the value of an aprepro variable.

double	get_aprepro_numeric_value (std::string variable_name)
	get the value of the given aprepro variable

bool	get_node_constraint ()
	Query current setting for node constraint (move nodes to geometry)

int	get_node_constraint_value ()
	Query current setting for node constraint (move nodes to geometry)

double	get_node_constraint_smart_threshold ()
	Query current setting for node constraint smart threshold.

std::string	get_node_constraint_smart_metric ()
	Query current setting for node constraint smart metric Currently only for tets. Return either "distortion" of "normalized inradius".

std::string	get_vertex_type (int surface_id, int vertex_id)
	Get the Vertex Types for a specified vertex on a specified surface. Vertex types include "side", "end", "reverse", "unknown".

std::vector< int >	get_relatives (const std::string &source_geometry_type, int source_id, const std::string &target_geom_type)
	Get the relatives (parents/children) of a specified entity.

std::vector< int >	get_adjacent_surfaces (const std::string &geometry_type, int entity_id)
	Get a list of adjacent surfaces to a specified entity.

std::vector< int >	get_adjacent_volumes (const std::string &geometry_type, int entity_id)
	Get a list of adjacent volumes to a specified entity.

std::vector< int >	get_entities (const std::string &entity_type)
	Get all entities of a specified type (including geometry, mesh, etc...)

std::vector< int >	get_list_of_free_ref_entities (const std::string &geometry_type)
	Get all free entities of a given geometry type.

int	get_owning_body (const std::string &geometry_type, int entity_id)
	Get the owning body for a specified entity.

int	get_owning_volume (const std::string &geometry_type, int entity_id)
	Get the owning volume for a specified entity.

int	get_owning_volume_by_name (const std::string &entity_name)
	Get the owning volume for a specified entity.

double	get_curve_length (int curve_id)
	Get the length of a specified curve.

double	get_arc_length (int curve_id)
	Get the arc length of a specified curve.

double	get_distance_from_curve_start (double x_coordinate, double y_coordinate, double z_coordinate, int curve_id)
	Get the distance from a point on a curve to the curve's start point.

double	get_curve_radius (int curve_id)
	Get the radius of a specified arc.

std::array< double, 3 >	get_curve_center (int curve_id)
	Get the center point of the arc.

double	get_surface_area (int surface_id)
	Get the area of a surface.

std::vector< int >	get_similar_curves (std::vector< int > curve_ids, double tol=1e-3, bool use_percent_tol=true, bool on_similar_vols=true)
	Get similar curves with the same length.

std::vector< int >	get_similar_surfaces (std::vector< int > surface_ids, double tol=1e-3, bool use_percent_tol=true, bool on_similar_vols=true)
	Get similar surfaces with the same area and number of curves.

std::vector< int >	get_similar_volumes (std::vector< int > volume_ids, double tol=1e-3, bool use_percent_tol=true)
	Get similar volumes with the same volume and number of faces.

std::vector< double >	get_surface_principal_curvatures (int surface_id)
	Get the principal curvatures of a surface at surface mid_point.

double	get_volume_area (int volume_id)
	Get the area of a volume.

double	get_volume_volume (int vol_id)
	Get the volume of a volume.

int	get_num_volume_shells (int volume_id)
	Get the number of shells in this volume.

double	get_hydraulic_radius_surface_area (int surface_id)
	Get the area of a hydraulic surface.

double	get_hydraulic_radius_volume_area (int volume_id)
	Get the area of a hydraulic volume.

std::array< double, 3 >	get_center_point (const std::string &entity_type, int entity_id)
	Get the center point of a specified entity.

int	get_valence (int vertex_id)
	Get the valence for a specific vertex.

double	get_distance_between (int vertex_id_1, int vertex_id_2)
	Get the distance between two vertices.

double	get_distance_between_entities (std::string geom_type_1, int entity_id_1, std::string geom_type_2, int entity_id_2)
	Get the distance between two geom entities.

int	is_point_contained (const std::string &geometry_type, int entity_id, const std::array< double, 3 > &xyz_point)
	Determine if given point is inside, outside, on or unknown the given entity. note that this is typically used for volumes or sheet bodies.

void	print_surface_summary_stats ()
	Print the surface summary stats to the console.

void	print_volume_summary_stats ()
	Print the volume summary stats to the console.

int	get_block_count ()
	Get the current number of blocks.

int	get_sideset_count ()
	Get the current number of sidesets.

int	get_nodeset_count ()
	Get the current number of sidesets.

int	get_volume_count ()
	Get the current number of nodesets.

int	get_body_count ()
	Get the current number of bodies.

int	get_surface_count ()
	Get the current number of surfaces.

int	get_vertex_count ()
	Get the current number of vertices.

int	get_curve_count ()
	Get the current number of curves.

int	get_curve_count_in_volumes (std::vector< int > target_volume_ids)
	Get the current number of curves in the passed-in volumes.

std::vector< int >	get_current_ids (const std::string &entity_type)
	Get the current body ids.

bool	is_catia_engine_available ()
	Determine whether catia engine is available.

bool	is_acis_engine_available ()

bool	is_opencascade_engine_available ()

std::vector< int >	evaluate_exterior_angle (const std::vector< int > &curve_list, const double test_angle)
	find all curves in the given list with an exterior angle (the angle between surfaces) less than the test angle. This is equivalent to the df parser "exterior_angle" test. (draw curve with exterior_angle >90)

double	evaluate_exterior_angle_at_curve (int curve_id, int volume_id)
	return exterior angle at a single curve with respect to a volume

double	evaluate_surface_angle_at_vertex (int surf_id, int vert_id)
	return interior angle at a vertex on a specified surface

double	get_overlap_max_gap (void)
	Get the max gap setting for calculating surface overlaps.

void	set_overlap_max_gap (const double maximum_gap)
	Set the max gap setting for calculating surface overlaps.

double	get_overlap_min_gap (void)
	Get the min gap setting for calculating surface overlaps.

void	set_overlap_min_gap (const double min_gap)
	Set the min gap setting for calculating surface overlaps.

double	get_overlap_max_angle (void)
	Get the max angle setting for calculating surface overlaps.

void	set_overlap_max_angle (const double maximum_angle)
	Set the max angle setting for calculating surface overlaps.

Geometry Repair Support
void	get_small_surfaces_hydraulic_radius (std::vector< int > target_volume_ids, double mesh_size, std::vector< int > &returned_small_surfaces, std::vector< double > &returned_small_radius)
	Get the list of small hydraulic radius surfaces for a list of volumes.

std::vector< int >	get_small_surfaces_HR (std::vector< int > target_volume_ids, double mesh_size)
	Python callable version Get the list of small hydraulic radius surfaces for a list of volumes.

void	get_small_volumes_hydraulic_radius (std::vector< int > target_volume_ids, double mesh_size, std::vector< int > &returned_small_volumes, std::vector< double > &returned_small_radius)
	Get the list of small hydraulic radius volumes for a list of volumes.

std::vector< int >	get_small_curves (std::vector< int > target_volume_ids, double mesh_size)
	Get the list of small curves for a list of volumes.

std::vector< int >	get_smallest_curves (std::vector< int > target_volume_ids, int number_to_return)
	Get a list of the smallest curves in the list of volumes. The number returned is specified by 'num_to_return'.

std::vector< int >	get_small_surfaces (std::vector< int > target_volume_ids, double mesh_size)
	Get the list of small surfaces for a list of volumes.

bool	is_narrow_surface (int surface_id, double mesh_size)
	return whether the surface is narrow (has a width smaller than mesh_size)

std::vector< int >	get_narrow_surfaces (std::vector< int > target_volume_ids, double mesh_size)
	Get the list of narrow surfaces for a list of volumes.

std::vector< int >	get_small_and_narrow_surfaces (std::vector< int > target_ids, double small_area, double small_curve_size)
	Get the list of small or narrow surfaces from a list of volumes.

std::vector< int >	get_closed_narrow_surfaces (std::vector< int > target_ids, double narrow_size)
	Get the list of closed, narrow surfaces from a list of volumes.

std::vector< int >	get_surfs_with_narrow_regions (std::vector< int > target_ids, double narrow_size)
	Get the list of surfaces with narrow regions.

std::vector< int >	get_narrow_regions (std::vector< int > target_ids, double narrow_size)
	Get the list of surfaces with narrow regions.

std::vector< int >	get_small_volumes (std::vector< int > target_volume_ids, double mesh_size)
	Get the list of small volumes from a list of volumes.

bool	is_cylinder_surface (int surface_id)
	return whether the surface is a cylinder

bool	is_chamfer_surface (int surface_id, double thickness_threshold)
	return whether the surface is a chamfer

std::vector< std::vector< double > >	get_chamfer_surfaces (std::vector< int > target_volume_ids, double thickness_threshold)
	Get the list of chamfer surfaces for a list of volumes.

bool	is_blend_surface (int surface_id)
	return whether the surface is a blend

std::vector< int >	get_blend_surfaces (std::vector< int > target_volume_ids)
	Get the list of blend surfaces for a list of volumes.

std::vector< int >	get_small_radius_blend_surfaces (std::vector< int > target_volume_ids, double max_radius)
	Get the list of blend surfaces for a list of volumes that have a radius of curvature smaller than max_radius.

bool	is_close_loop_surface (int surface_id, double mesh_size)
	return whether the has one or more close loops

std::vector< int >	get_close_loops (std::vector< int > target_volume_ids, double mesh_size)
	Get the list of close loops (surfaces) for a list of volumes.

std::vector< std::vector< double > >	get_close_loops_with_thickness (std::vector< int > target_volume_ids, double mesh_size, int genus)
	Get the list of close loops (surfaces) for a list of volumes also return the corresponding minimum distances for each surface.

double	get_close_loop_thickness (int surface_id)
	Get the thickness of a close loop surface.

std::vector< std::vector< std::string > >	get_solutions_for_close_loop (int surface_id, double mesh_size)
	Get the solution list for a given close loop surface.

std::vector< int >	get_tangential_intersections (std::vector< int > target_volume_ids, double upper_bound, double lower_bound)
	Get the list of bad tangential intersections for a list of volumes.

std::vector< int >	get_coincident_vertices (std::vector< int > target_volume_ids, double high_tolerance)

std::vector< int >	get_close_vertex_curve_pairs (std::vector< int > target_volume_ids, double high_tolerance)
	Get the list of close vertex-curve pairs (python callable)

std::vector< std::vector< std::string > >	get_solutions_for_near_coincident_vertices (int vertex_id_1, int vertex_id_2)
	Get lists of display strings and command strings for near coincident vertices.

std::vector< std::vector< std::string > >	get_solutions_for_bad_geometry (std::string geom_type, int geom_id)
	Get lists of display strings and command strings for bad geometry.

std::vector< std::vector< std::string > >	get_solutions_for_overlapping_volumes (int volume_id_1, int volume_id_2, double maximum_gap_tolerance, double maximum_gap_angle)
	Get lists of display strings and command strings for overlapping volumes.

std::vector< std::vector< std::string > >	get_solutions_for_overlapping_surfaces (int surface_id_1, int surface_id_2)
	Get lists of display strings and command strings for overlapping surfaces.

std::vector< std::vector< std::string > >	get_volume_gap_solutions (int surface_id_1, int surface_id_2)

std::vector< std::vector< std::string > >	get_solutions_for_near_coincident_vertex_and_curve (int vertex_id, int curve_id)
	Get lists of display strings and command strings for near coincident vertices and curves.

std::vector< std::vector< std::string > >	get_solutions_for_near_coincident_vertex_and_surface (int vertex_id, int surface_id)
	Get lists of display strings and command strings for near coincident vertices and surfaces.

std::vector< std::vector< std::string > >	get_solutions_for_imprint_merge (int surface_id1, int surface_id2)
	Get lists of display strings and command strings for imprint/merge solutions.

std::vector< std::vector< std::string > >	get_solutions_for_forced_sweepability (int volume_id, std::vector< int > &source_surface_id_list, std::vector< int > &target_surface_id_list, double small_curve_size=-1.0)
	This function only works from C++ Get lists of display strings and command strings for forced sweepability solutions

std::vector< std::vector< std::string > >	get_solutions_for_volumes (int vol_id, double small_curve_size, double mesh_size)
	Get lists of display, preview and command strings for small volume solutions.

std::vector< std::vector< std::string > >	get_solutions_for_classified_volume (std::string classification, int vol_id)
	Get lists of display, preview and command strings for a classified volume.

std::vector< std::vector< std::string > >	get_solutions_for_classified_surface (std::string classification, int surf_id)
	Get lists of display, preview and command strings for a classified surface.

std::vector< std::vector< std::string > >	get_solutions_for_thin_volume (int vol_id, std::vector< int > near_vols, bool include_weights=false, bool include_type=false)
	Get lists of display, preview and command strings for a volume to reduce to shell.

std::vector< std::vector< std::string > >	get_solutions_for_sheet_volumes (std::vector< int > vol_ids, std::vector< double > thickness)
	Get lists of display, preview and command strings to connect sheet bodies.

std::vector< std::vector< std::string > >	get_solutions_for_sheet_volume_connection (std::vector< int > vol1_sheets, std::vector< int > vol2_sheets, double thickness1, double thickness2, std::string close_type="", int close_id=0)
	Get lists of display, preview and command strings for two neighboring sheet volume sets. each set should be part of a common parent 3D volume.

std::vector< std::vector< std::string > >	get_solutions_for_small_surfaces (int surface_id, double small_curve_size, double mesh_size)
	Get lists of display, preview and command strings for small surface solutions.

std::vector< std::vector< std::string > >	get_solutions_for_small_curves (int curve_id, double small_curve_size, double mesh_size)
	Get lists of display, preview and command strings for small curve solutions.

std::vector< std::vector< std::string > >	get_solutions_for_sharp_angle_vertex (int vertex_id, double small_curve_size, double mesh_size)
	Get lists of display, preview and command strings for sharp angle solutions.

std::vector< std::vector< std::string > >	get_solutions_for_surfaces_with_narrow_regions (int surface_id, double small_curve_size, double mesh_size)
	Get lists of display, preview and command strings for surfaces with narrow regions solutions.

std::vector< std::vector< std::string > >	get_solutions_for_cone_surface (int surface_id)
	Get lists of display, preview and command strings for surfaces with defined as cones.

bool	get_solutions_for_source_target (int volume_id, std::vector< std::vector< int > > &feasible_source_surface_id_list, std::vector< std::vector< int > > &feasible_target_surface_id_list, std::vector< std::vector< int > > &infeasible_source_surface_id_list, std::vector< std::vector< int > > &infeasible_target_surface_id_list)
	Get a list of suggested sources and target surface ids given a specified volume.

void	get_sharp_surface_angles (std::vector< int > target_volume_ids, std::vector< int > &returned_large_surface_angles, std::vector< int > &returned_small_surface_angles, std::vector< double > &returned_large_angles, std::vector< double > &returned_small_angles, double upper_bound, double lower_bound)
	Get the list of sharp surface angles for a list of volumes.

void	get_sharp_curve_angles (std::vector< int > target_volume_ids, std::vector< int > &returned_large_curve_angles, std::vector< int > &returned_small_curve_angles, std::vector< double > &returned_large_angles, std::vector< double > &returned_small_angles, double upper_bound, double lower_bound)
	Get the list of sharp curve angles for a list of volumes.

std::vector< std::vector< double > >	get_sharp_angle_vertices (std::vector< int > target_volume_ids, double upper_bound, double lower_bound)
	Get the list of vertices at sharp curve angles for a list of volumes returns two parallel arrays. First array are the vertex ids and second are the associated angles at the vertices.

bool	is_cone_surface (int surface_id)
	return whether the surface is a cone

std::vector< int >	get_cone_surfaces (std::vector< int > target_volume_ids)
	return a list of surfaces that are cones defined by a conic surface and a hard point

void	get_bad_geometry (std::vector< int > target_volume_ids, std::vector< int > &returned_body_list, std::vector< int > &returned_volume_list, std::vector< int > &returned_surface_list, std::vector< int > &returned_curve_list)
	This function only works from C++ Get the list of bad geometry for a list of volumes

std::vector< std::vector< int > >	get_overlapping_surfaces_in_bodies (std::vector< int > body_ids, bool filter_slivers=false)
	returns a vector of vectors defining surface overlaps The first surface (id) in each vector overlaps with all subsequent surfaces in the vector.

void	get_overlapping_surfaces_in_volumes (std::vector< int > target_volume_ids, std::vector< int > &returned_surface_list_1, std::vector< int > &returned_surface_list_2, std::vector< double > &returned_distance_list, std::vector< double > &returned_overlap_area_list, bool filter_slivers=false, bool filter_volume_overlaps=false, int cache_overlaps=0)
	This function only works from C++ Get the list of overlapping surfaces for a list of volumes

void	get_overlapping_surfaces (std::vector< int > target_surface_ids, std::vector< int > &returned_surface_list_1, std::vector< int > &returned_surface_list_2, std::vector< double > &returned_distance_list, std::vector< double > &returned_overlap_area_list, bool filter_slivers=false, bool filter_volume_overlaps=false, int cache_overlaps=0)
	This function only works from C++ Get the list of overlapping surfaces for a list of surfaces

void	get_overlapping_curves (std::vector< int > target_surface_ids, double min_gap, double max_gap, std::vector< int > &returned_curve_list_1, std::vector< int > &returned_curve_list_2, std::vector< double > &returned_distance_list)

void	get_volume_gaps (std::vector< int > target_volume_ids, std::vector< int > &returned_surface_list_1, std::vector< int > &returned_surface_list_2, std::vector< double > &returned_distance_list, std::vector< double > &returned_overlap_area_list, double maximum_gap_tolerance, double maximum_gap_angle, int cache_overlaps=0)
	This function only works from C++ Get the list of gaps for a list of volumes

std::vector< VolumeGap >	get_gaps_between_volumes (std::vector< int > target_volume_ids, double maximum_gap_tolerance, double maximum_gap_angle, int cache_overlaps=0)

std::vector< int >	get_overlapping_volumes (std::vector< int > target_volume_ids)
	Get the list of overlapping volumes for a list of volumes.

std::vector< int >	get_overlapping_volumes_at_volume (int volume_id, std::vector< int > compare_volumes)
	Get the list of overlapping volumes from the model for a single volume.

std::vector< int >	get_overlapping_surfaces_at_surface (int surface_id, std::vector< int > compare_volumes, int cache_overlaps=0)
	Get the list of overlapping surfaces from the model for a single surface.

std::vector< int >	get_nearby_volumes_at_volume (int volume_id, std::vector< int > compare_volumes, double distance)
	Get the list of nearby volumes from the model for a single volume.

std::vector< int >	get_unmerged_curves_on_shells (std::vector< int > shell_vols, std::vector< double > thickness)
	return a list of curve IDs on the given shell volumes that are in proximity to one of the other shell volumes in the list

void	get_mergeable_entities (std::vector< int > target_volume_ids, std::vector< std::vector< int > > &returned_surface_list, std::vector< std::vector< int > > &returned_curve_list, std::vector< std::vector< int > > &returned_vertex_list, double merge_tol=-1)
	This function only works from C++ Get the list of mergeable entities from a list of volumes

std::vector< std::vector< int > >	get_mergeable_vertices (std::vector< int > target_volume_ids)
	Get the list of mergeable vertices from a list of volumes/bodies.

std::vector< std::vector< int > >	get_mergeable_curves (std::vector< int > target_volume_ids)
	Get the list of mergeable curves from a list of volumes/bodies.

std::vector< std::vector< int > >	get_mergeable_surfaces (std::vector< int > target_volume_ids)
	Get the list of mergeable surfaces from a list of volumes/bodies.

void	get_closest_vertex_curve_pairs (std::vector< int > target_ids, int &returned_number_to_return, std::vector< int > &returned_vertex_ids, std::vector< int > &returned_curve_ids, std::vector< double > &returned_distances)
	Find the n closest vertex pairs in the model.

void	get_smallest_features (std::vector< int > target_ids, int &returned_number_to_return, std::vector< int > &returned_type_1_list, std::vector< int > &returned_type_2_list, std::vector< int > &returned_id_1_list, std::vector< int > &returned_id_2_list, std::vector< double > &returned_distance_list)
	Finds all of the smallest features.

double	estimate_merge_tolerance (std::vector< int > target_volume_ids, bool accurate_in=false, bool report_in=false, double low_value_in=-1.0, double high_value_in=-1.0, int number_calculations_in=10, bool return_calculations_in=false, std::vector< double > merge_tolerance_list=NULL, std::vector< int > number_of_proximities_list=NULL)
	Estimate a good merge tolerance for the passed-in volumes.

void	find_floating_volumes (std::vector< int > target_volume_ids, std::vector< int > &returned_floating_id_list)
	Get the list of volumes with no merged children.

void	find_nonmanifold_curves (std::vector< int > target_volume_ids, std::vector< int > &returned_curve_list)
	Get the list of nonmanifold curves in the volume list.

void	find_nonmanifold_vertices (std::vector< int > target_volume_ids, std::vector< int > &returned_vertex_list)
	Get the list of nonmanifold vertices in the volume list.

void	get_coincident_entity_pairs (std::vector< int > target_volume_ids, std::vector< int > &returned_v_v_vertex_list, std::vector< int > &returned_v_c_vertex_list, std::vector< int > &returned_v_c_curve_list, std::vector< int > &returned_v_s_vertex_list, std::vector< int > &returned_v_s_surf_list, std::vector< double > &returned_vertex_distance_list, std::vector< double > &returned_curve_distance_list, std::vector< double > &returned_surf_distance_list, double low_value, double high_value, bool do_vertex_vertex=true, bool do_vertex_curve=true, bool do_vertex_surf=true, bool filter_same_volume_cases=false)
	Get the list of coincident vertex-vertex, vertex-curve, and vertex-surface pairs and distances from a list of volumes.

void	get_coincident_vertex_vertex_pairs (std::vector< int > target_volume_ids, std::vector< int > &returned_vertex_pair_list, std::vector< double > &returned_distance_list, double low_value, double threshold_value, bool filter_same_volume_cases=false)
	Get the list of coincident vertex pairs and distances from a list of volumes.

void	get_coincident_vertex_curve_pairs (std::vector< int > target_volume_ids, std::vector< int > &returned_vertex_list, std::vector< int > &returned_curve_list, std::vector< double > &returned_distance_list, double low_value, double threshold_value, bool filter_same_volume_cases=false)
	Get the list of coincident vertex/curve pairs and distances from a list of volumes.

void	get_coincident_vertex_surface_pairs (std::vector< int > target_volume_ids, std::vector< int > &returned_vertex_list, std::vector< int > &returned_surface_list, std::vector< double > &returned_distance_list, double low_value, double threshold_value, bool filter_same_volume_cases=false)
	Get the list of coincident vertex/surface pairs and distances from a list of volumes.

std::vector< std::vector< std::string > >	get_solutions_for_decomposition (const std::vector< int > &volume_list, double exterior_angle, bool do_imprint_merge, bool tolerant_imprint)
	Get the list of possible decompositions.

std::vector< std::vector< std::string > >	get_solutions_for_blends (int surface_id)
	Get the solution list for a given blend surface.

std::vector< std::vector< int > >	get_blend_chains (int surface_id)
	Returns the blend chains for a surface.

std::vector< std::vector< int > >	get_chamfer_chains (int surface_id)
	Returns the chamfer chains for a surface.

bool	are_adjacent_surfaces (std::vector< int > surface_ids)
	return whether two or more surfaces share at least one manifold curve (common curve is part of exactly two surfaces)

bool	are_adjacent_curves (std::vector< int > curve_ids)
	return whether two or more curves share at least one manifold vertex (common vertex is part of exactly two curves)

bool	is_continuous_surface (int surface_id, double angle_tol)
	return whether the surface has any adjacent surfaces that are continuous (exterior angle is 180 degrees +- angle_tol)

std::vector< int >	get_continuous_surfaces (int surface_id, double angle_tol)
	Returns the adjacent surfaces that are continuous (exterior angle is 180 degrees +- angle_tol)

std::vector< int >	get_continuous_curves (int curve_id, double angle_tol)
	Returns the adjacent curves that are continuous (angle is 180 degrees +- angle_tol)

bool	is_cavity_surface (int surface_id)
	return whether the surface is part of a cavity

bool	is_hole_surface (int surface_id, double radius_threshold)
	return whether the surface is part of a hole

std::vector< int >	get_cavity_surfaces (int surface_id)
	Returns the adjacent surfaces in a cavity for a surface.

std::vector< int >	get_hole_surfaces (int surface_id)
	Returns the adjacent surfaces in a hole for a surface.

std::vector< std::vector< int > >	get_surface_cavity_collections (const std::vector< int > &volume_list, double hr_threshold, double area_threshold, std::vector< double > &return_cavity_hrs, std::vector< double > &return_cavity_areas)
	Returns the collections of surfaces that comprise holes or cavities in the specified volumes. Filter by hydarulic radius and area of the cavity.

std::vector< std::vector< int > >	get_surface_hole_collections (const std::vector< int > &volume_list, double radius_threshold, std::vector< double > &return_hole_radius)
	Returns the collections of surfaces that comprise holes in the specified volumes. Filter by radius of the hole.

std::vector< std::vector< int > >	get_blend_chain_collections (const std::vector< int > &volume_list, double radius_threshold, std::vector< double > &return_radii)
	Returns the collections of surfaces that comprise blend chains in the specified volumes. Filter by radius threshold.

std::vector< std::vector< int > >	get_chamfer_chain_collections (const std::vector< int > &volume_list, double thickness_threshold, std::vector< double > &return_thicknesses)
	Returns the collections of surfaces that comprise chamfers in the specified volumes. Filter by thickness of chamfer.

std::vector< std::vector< std::string > >	get_solutions_for_cavity_surface (int surface_id)
	Get the solution list for a given cavity surface.

double	get_merge_tolerance ()
	Get the current merge tolerance value.

Blocks, Sidesets, and Nodesets
std::string	get_exodus_entity_name (const std::string entity_type, int entity_id)
	Get the name associated with an exodus entity.

std::string	get_exodus_entity_type (std::string entity_type, int entity_id)
	Get the type of an exodus entity.

std::string	get_exodus_entity_description (std::string entity_type, int entity_id)
	Get the description associated with an exodus entity.

std::vector< double >	get_all_exodus_times (const std::string &filename)
	Open an exodus file and get a vector of all stored time stamps.

std::vector< std::string >	get_all_exodus_variable_names (const std::string &filename, const std::string &variable_type)
	Open an exodus file and get a list of all stored variable names.

int	get_block_id (std::string entity_type, int entity_id)
	Get the associated block id for a specific curve, surface, or volume.

std::vector< int >	get_block_ids (const std::string &mesh_geometry_file_name)
	Get list of block ids from a mesh geometry file.

std::vector< int >	get_block_id_list ()
	Get a list of all blocks.

std::vector< int >	get_nodeset_id_list ()
	Get a list of all nodesets.

std::vector< int >	get_sideset_id_list ()
	Get a list of all sidesets.

std::vector< int >	get_bc_id_list (CI_BCTypes bc_type_enum)
	Get a list of all bcs of a specified type.

std::string	get_bc_name (CI_BCTypes bc_type_enum, int bc_id)
	Get the name for the specified bc.

std::vector< int >	get_nodeset_id_list_for_bc (CI_BCTypes bc_type_enum, int bc_id)
	Get a list of all nodesets the specified bc is applied to.

std::vector< int >	get_sideset_id_list_for_bc (CI_BCTypes bc_type_enum, int bc_id)
	Get a list of all sidesets the specified bc is applied to.

int	get_next_sideset_id ()
	Get a next available sideset id.

int	get_next_nodeset_id ()
	Get a next available nodeset id.

int	get_next_block_id ()
	Get a next available block id.

std::string	get_copy_nodeset_on_geometry_copy_setting ()
	Get the copy nodeset on geometry copy setting.

std::string	get_copy_sideset_on_geometry_copy_setting ()
	Get the copy nodeset on geometry copy setting.

std::string	get_copy_block_on_geometry_copy_setting ()
	Get the copy nodeset on geometry copy setting.

bool	set_copy_nodeset_on_geometry_copy_setting (std::string val)
	Set the copy nodeset on geometry copy setting "ON", "USE_ORIGINAL", or "OFF".

bool	set_copy_sideset_on_geometry_copy_setting (std::string val)
	Set the copy sideset on geometry copy setting "ON", "USE_ORIGINAL", or "OFF".

bool	set_copy_block_on_geometry_copy_setting (std::string val)
	Set the copy block on geometry copy setting "ON", "USE_ORIGINAL", or "OFF".

void	get_block_children (int block_id, std::vector< int > &returned_group_list, std::vector< int > &returned_node_list, std::vector< int > &returned_sphere_list, std::vector< int > &returned_edge_list, std::vector< int > &returned_tri_list, std::vector< int > &returned_face_list, std::vector< int > &returned_pyramid_list, std::vector< int > &returned_tet_list, std::vector< int > &returned_hex_list, std::vector< int > &returned_wedge_list, std::vector< int > &returned_volume_list, std::vector< int > &returned_surface_list, std::vector< int > &returned_curve_list, std::vector< int > &returned_vertex_list)
	Get lists of any and all possible children of a block.

void	get_nodeset_children (int nodeset_id, std::vector< int > &returned_node_list, std::vector< int > &returned_volume_list, std::vector< int > &returned_surface_list, std::vector< int > &returned_curve_list, std::vector< int > &returned_vertex_list)
	get lists of any and all possible children of a nodeset

void	get_sideset_children (int sideset_id, std::vector< int > &returned_face_list, std::vector< int > &returned_surface_list, std::vector< int > &returned_curve_list)
	get lists of any and all possible children of a sideset

std::vector< int >	get_block_volumes (int block_id)
	Get a list of volume ids associated with a specific block.

std::vector< int >	get_block_surfaces (int block_id)
	Get a list of surface associated with a specific block.

std::vector< int >	get_block_curves (int block_id)
	Get a list of curve associated with a specific block.

std::vector< int >	get_block_vertices (int block_id)
	Get a list of vertices associated with a specific block.

bool	get_block_elements_and_nodes (int block_id, std::vector< int > &returned_node_list, std::vector< int > &returned_sphere_list, std::vector< int > &returned_edge_list, std::vector< int > &returned_tri_list, std::vector< int > &returned_face_list, std::vector< int > &returned_pyramid_list, std::vector< int > &returned_wedge_list, std::vector< int > &returned_tet_list, std::vector< int > &returned_hex_list)
	Get lists of the nodes and different element types associated with this block. This function is recursive, meaning that if the block was created pointing to a piece of geometry, it will traverse down and get the mesh entities associated to that geometry.

std::vector< int >	get_edges_to_swap (int curve_id)
	Given a curve defining a knife edge between two triangle-meshed surfaces, return a list of edges on triangles at the curve that are good candidates for swapping. A good candidate for swapping means that if swapped, the two triangles at the knife's edge will have a larger interior dihedral angle between them, allowing a larger volume to accommodate tetmeshing.

std::vector< int >	get_block_nodes (int block_id)
	Get a list of nodes associated with a specific block.

std::vector< int >	get_block_edges (int block_id)
	Get a list of edges associated with a specific block.

std::vector< int >	get_block_tris (int block_id)
	Get a list of tris associated with a specific block.

std::vector< int >	get_block_faces (int block_id)
	Get a list of faces associated with a specific block.

std::vector< int >	get_block_pyramids (int block_id)
	Get a list of pyramids associated with a specific block.

std::vector< int >	get_block_wedges (int block_id)
	Get a list of wedges associated with a specific block.

std::vector< int >	get_block_tets (int block_id)
	Get a list of tets associated with a specific block.

std::vector< int >	get_block_hexes (int block_id)
	Get a list of hexes associated with a specific block.

std::vector< int >	get_volume_hexes (int volume_id)
	get the list of any hex elements in a given volume

std::vector< int >	get_volume_tets (int volume_id)
	get the list of any tet elements in a given volume

std::vector< int >	get_volume_wedges (int volume_id)
	get the list of any wedge elements in a given volume

std::vector< int >	get_volume_pyramids (int volume_id)
	get the list of any pyramid elements in a given volume

std::vector< int >	get_nodeset_volumes (int nodeset_id)
	Get a list of volume ids associated with a specific nodeset.

std::vector< int >	get_nodeset_surfaces (int nodeset_id)
	Get a list of surface ids associated with a specific nodeset.

std::vector< int >	get_nodeset_curves (int nodeset_id)
	Get a list of curve ids associated with a specific nodeset.

std::vector< int >	get_nodeset_vertices (int nodeset_id)
	Get a list of vertex ids associated with a specific nodeset.

std::vector< int >	get_nodeset_nodes (int nodeset_id)
	Get a list of node ids associated with a specific nodeset. This only returns the nodes that were specifically assigned to this nodeset. If the nodeset was created as a piece of geometry, get_nodeset_nodes will not return the nodes on that geometry See also get_nodeset_nodes_inclusive.

std::vector< int >	get_nodeset_nodes_inclusive (int nodeset_id)
	Get a list of node ids associated with a specific nodeset. This includes all nodes specifically assigned to the nodeset, as well as nodes associated to a piece of geometry which was used to define the nodeset.

std::vector< int >	get_sideset_curves (int sideset_id)
	Get a list of curve ids associated with a specific sideset.

std::vector< int >	get_sideset_edges (int sideset_id)
	Get a list of any quads in a sideset.

std::vector< int >	get_curve_edges (int curve_id)
	get the list of any edge elements on a given curve

std::vector< int >	get_sideset_surfaces (int sideset_id)
	Get a list of any surfaces in a sideset.

std::vector< int >	get_sideset_quads (int sideset_id)
	Get a list of any quads in a sideset.

std::vector< int >	get_surface_quads (int surface_id)
	get the list of any quad elements on a given surface

std::vector< int >	get_surface_tris (int surface_id)
	get the list of any tri elements on a given surface

int	get_surface_num_loops (int surface_id)
	get the number of loops on the surface

std::vector< std::vector< int > >	get_surface_loop_nodes (int surface_id)
	get the ordered list of nodes on the loops of this surface

std::string	get_entity_sense (std::string source_type, int source_id, int sideset_id)
	Get the sense of a sideset item.

std::string	get_wrt_entity (std::string source_type, int source_id, int sideset_id)
	Get the with-respect-to entity.

std::vector< std::string >	get_geometric_owner (std::string mesh_entity_type, std::string mesh_entity_list)
	Get a list of geometric owners given a list of mesh entities.

std::vector< std::string >	get_all_geometric_owners (std::string mesh_entity_type, std::string mesh_entity_list)
	Get a list of geometric owners given a list of mesh entities. returns geometric owners of entity as well as all of its child mesh entities.

Geometry-Mesh Entity Support
std::vector< int >	get_volume_nodes (int volume_id)
	Get list of node ids owned by a volume. Excludes nodes owned by bounding surfs, curves and verts.

std::vector< int >	get_surface_nodes (int surface_id)
	Get list of node ids owned by a surface. Excludes nodes owned by bounding curves and verts.

std::vector< int >	get_curve_nodes (int curve_id)
	Get list of node ids owned by a curve. Excludes nodes owned by bounding vertices.

int	get_vertex_node (int vertex_id)
	Get the node owned by a vertex.

Group Support
int	get_id_from_name (const std::string &name)
	Get id for a named entity.

std::vector< int >	get_all_ids_from_name (const std::string &geo_type, const std::string &name)
	Get all ids of a geometry type with the prefix given by string.

void	get_group_children (int group_id, std::vector< int > &returned_group_list, std::vector< int > &returned_body_list, std::vector< int > &returned_volume_list, std::vector< int > &returned_surface_list, std::vector< int > &returned_curve_list, std::vector< int > &returned_vertex_list, int &returned_node_count, int &returned_edge_count, int &returned_hex_count, int &returned_quad_count, int &returned_tet_count, int &returned_tri_count, int &returned_wedge_count, int &returned_pyramid_count, int &returned_sphere_count)
	Get group children.

std::vector< int >	get_group_groups (int group_id)
	Get group groups (groups that are children of another group)

std::vector< int >	get_group_volumes (int group_id)
	Get group volumes (volumes that are children of a group)

std::vector< int >	get_group_bodies (int group_id)
	Get group bodies (bodies that are children of a group)

std::vector< int >	get_group_surfaces (int group_id)
	Get group surfaces (surfaces that are children of a group)

std::vector< int >	get_group_curves (int group_id)
	Get group curves (curves that are children of a group)

std::vector< int >	get_group_vertices (int group_id)
	Get group vertices (vertices that are children of a group)

std::vector< int >	get_group_nodes (int group_id)
	Get group nodes (nodes that are children of a group)

std::vector< int >	get_group_edges (int group_id)
	Get group edges (edges that are children of a group)

std::vector< int >	get_group_quads (int group_id)
	Get group quads (quads that are children of a group)

std::vector< int >	get_group_tris (int group_id)
	Get group tris (tris that are children of a group)

std::vector< int >	get_group_tets (int group_id)
	Get group tets (tets that are children of a group)

std::vector< int >	get_group_wedges (int group_id)
	Get group wedges (wedges that are children of a group)

std::vector< int >	get_group_pyramids (int group_id)
	Get group pyramids (pyramids that are children of a group)

std::vector< int >	get_group_spheres (int group_id)

std::vector< int >	get_group_hexes (int group_id)

int	get_next_group_id ()
	Get the next available group id from Cubit.

void	delete_all_groups ()
	Delete all groups.

void	delete_group (int group_id)
	Delete a specific group.

void	set_max_group_id (int maximum_group_id)
	Reset Cubit's max group id This is really dangerous to use and exists only to overcome a limitation with Cubit. Cubit keeps track of the next group id to assign. But those ids just keep incrementing in Cubit. Some of the power tools in the Cubit GUI make groups 'under the covers' for various operations. The groups are immediately deleted. But, creating those groups will cause Cubit's group id to increase and downstream journal files may be messed up because those journal files are expecting a certain ID to be available.

int	create_new_group ()
	Create a new group.

void	remove_entity_from_group (int group_id, int entity_id, const std::string &entity_type)
	Remove a specific entity from a specific group.

void	add_entity_to_group (int group_id, int entity_id, const std::string &entity_type)
	Add a specific entity to a specific group.

void	add_entities_to_group (int group_id, const std::vector< int > &entity_id, const std::string &entity_type)
	Add a list of entities to a specific group.

void	group_list (std::vector< std::string > &name_list, std::vector< int > &returned_id_list)
	Get the names and ids of all the groups (excluding the pick group) that are defined by the current cubit session.

std::vector< std::pair< std::string, int > >	group_names_ids ()
	Get the names and ids of all the groups returned in a name/id structure that are defined by the current cubit session.

std::vector< int >	get_mesh_group_parent_ids (const std::string &element_type, int element_id)
	Get the group ids which are parents to the indicated mesh element.

bool	is_mesh_element_in_group (const std::string &element_type, int element_id)
	Indicates whether a mesh element is in a group.

General Purpose Utility
bool	is_part_of_list (int target_id, std::vector< int > id_list)
	Routine to check for the presence of an id in a list of ids.

int	get_last_id (const std::string &entity_type)
	Get the id of the last created entity of the given type.

bool	entity_exists (const std::string &entity_type, int id)
	return whether an entity of specified ID exists

std::string	get_idless_signature (std::string entity_type, int entity_id)
	get the idless signature of a geometric or mesh entity

std::string	get_idless_signatures (std::string entity_type, const std::vector< int > &entity_id_list)
	get the idless signatures of a range of geometric or mesh entities

Metadata Support
std::string	get_assembly_classification_level ()
	Get Classification Level for metadata.

std::string	get_assembly_classification_category ()
	Get Classification Category for metadata.

std::string	get_assembly_weapons_category ()
	Get Weapons Category for metadata.

std::string	get_assembly_metadata (int volume_id, int data_type)
	Get metadata for a specified volume id.

bool	is_assembly_metadata_attached (int volume_id)
	Determine whether metadata is attached to a specified volume.

std::string	get_assembly_name (int assembly_id)
	Get the stored name of an assembly node.

std::string	get_assembly_path (int assembly_id)
	Get the stored path of an assembly node.

std::string	get_assembly_type (int assembly_id)
	Get the stored type of an assembly node.

std::string	get_parent_assembly_path (int assembly_id)
	Get the stored path of an assembly node' parent.

int	get_assembly_level (int assembly_id)
	Get the stored level of an assembly node.

std::string	get_assembly_description (int assembly_id)
	Get the stored description of an assembly node.

int	get_assembly_instance (int assembly_id)
	Get the stored instance number of an assembly node.

int	get_parent_assembly_instance (int assembly_id)
	Get the stored instance number of an assembly node's instance.

std::string	get_assembly_file_format (int assembly_id)
	Get the stored file format of an assembly node.

std::string	get_assembly_units (int assembly_id)
	Get the stored units measure of an assembly node.

std::string	get_assembly_material_description (int assembly_id)
	Get the stored material description of an assembly part.

std::string	get_assembly_material_specification (int assembly_id)
	Get the stored material specification of an assembly part.

Mesh Element Queries
int	get_exodus_id (const std::string &entity_type, int entity_id)
	Get the exodus/genesis id for this element.

std::string	get_geometry_owner (const std::string &entity_type, int entity_id)
	Get the geometric owner of this mesh element.

std::vector< int >	get_connectivity (const std::string &entity_type, int entity_id)
	Get the list of node ids contained within a mesh entity.

std::vector< int >	get_expanded_connectivity (const std::string &entity_type, int entity_id)
	Get the list of node ids contained within a mesh entity, including interior nodes.

std::vector< int >	get_sub_elements (const std::string &entity_type, int entity_id, int dimension)
	Get the lower dimesion entities associated with a higher dimension entities. For example get the faces associated with a hex or the edges associated with a tri.

bool	get_node_exists (int node_id)
	Check the existance of a node.

bool	get_element_exists (int element_id)
	Check the existance of an element.

std::string	get_element_type (int element_id)
	return the type of a given element

int	get_element_type_id (int element_id)
	return the type id of a given element

int	get_element_block (int element_id)
	return the block that a given element is in.

int	get_global_element_id (const std::string &element_type, int id)
	Given a hex, tet, etc. id, return the global element id.

int	get_hex_global_element_id (int hex_id)
	Given a hex id, return the global element id.

int	get_tet_global_element_id (int tet_id)
	Given a tet id, return the global element id.

int	get_wedge_global_element_id (int wedge_id)
	Given a wedge id, return the global element id.

int	get_pyramid_global_element_id (int pyramid_id)
	Given a pyramid id, return the global element id.

int	get_tri_global_element_id (int tri_id)
	Given a tri id, return the global element id.

int	get_quad_global_element_id (int quad_id)
	Given a quad id, return the global element id.

int	get_edge_global_element_id (int edge_id)
	Given a edge id, return the global element id.

int	get_sphere_global_element_id (int edge_id)
	Given a sphere id, return the global element id.

int	get_node_global_id (int node_id)
	Given a node id, return the global element id that is assigned when the mesh is exported.

int	get_closest_node (double x_coordinate, double y_coordinate, double z_coordinate)
	Get the node closest to the given coordinates.

std::array< double, 3 >	get_nodal_coordinates (int node_id)
	Get the nodal coordinates for a given node id.

std::vector< int >	get_node_faces (int node_id)

std::vector< int >	get_node_tris (int node_id)

std::vector< int >	get_node_edges (int node_id)
	Get the edge ids that share a node.

bool	get_node_position_fixed (int node_id)
	Query "fixedness" state of node. A fixed node is not affecting by smoothing.

std::vector< std::pair< int, int > >	get_submap_corner_types (int surface_id)
	Get a list of vertex ids and the corresponding corner vertex types if the surface were defined as submap surface. There are no side affects. This does not actually assign corner types or change the underlying mesh scheme of the surface.

std::string	get_sideset_element_type (int sideset_id)
	Get the element type of a sideset.

std::string	get_block_element_type (int block_id)
	Get the element type of a block.

int	get_exodus_element_count (int entity_id, std::string entity_type)
	Get the number of elements in a exodus entity.

int	get_block_attribute_count (int block_id)
	Get the number of attributes in a block.

int	get_block_element_attribute_count (int block_id)
	Get the number of attributes in a block element.

double	get_block_attribute_value (int block_id, int attribute_index)
	Get a specific block attribute value.

std::string	get_block_attribute_name (int block_id, int attribute_index)
	Get a specific block attribute name.

std::vector< std::string >	get_block_element_attribute_names (int block_id)
	Get a specific block element attribute name.

std::vector< std::string >	get_valid_block_element_types (int block_id)
	Get a list of potential element types for a block.

int	get_block_material (int block_id)
	Get the id of the material assigned to the specified block.

std::vector< std::vector< int > >	get_blocks_with_materials ()
	Get the block ids and ids of the respective materials assigned to each block.

int	get_exodus_variable_count (std::string container_type, int container_id)
	Get the number of exodus variables in a nodeset, sideset, or block.

std::vector< std::string >	get_exodus_variable_names (std::string container_type, int container_id)
	Get the names of exodus variables in a nodeset, sideset, or block.

int	get_nodeset_node_count (int nodeset_id)
	Get the number of nodes in a nodeset.

int	get_geometry_node_count (const std::string &entity_type, int entity_id)
	Get the node count for a specific geometric entity.

void	get_owning_volume_ids (const std::string &entity_type, std::vector< int > &entity_list, std::vector< int > &volume_ids)
	Gets the id's of the volumes that are owners of one of the specified entities.

std::string	get_mesh_element_type (const std::string &entity_type, int entity_id)
	Get the mesh element type contained in the specified geometry.

Boundary Condition Support
bool	is_on_thin_shell (CI_BCTypes bc_type_enum, int entity_id)
	Determine whether a BC is on a thin shell. Valid for temperature, convection and heatflux.

bool	temperature_is_on_solid (CI_BCTypes bc_type_enum, int entity_id)
	Determine whether a BC temperature is on a solid. Valid for convection and temperature.

bool	convection_is_on_solid (int entity_id)
	Determine whether a BC convection is on a solid. Valid for convection.

bool	convection_is_on_shell_area (int entity_id, CI_BCEntityTypes shell_area_enum)
	Determine whether a BC convection is on a shell top or bottom. Valid for convection.

double	get_convection_coefficient (int entity_id, CI_BCEntityTypes bc_type_enum)
	Get the convection coefficient.

double	get_bc_temperature (CI_BCTypes bc_type_enum, int entity_id, CI_BCEntityTypes temp_type_enum)
	Get the temperature. Valid for convection, temperature.

bool	temperature_is_on_shell_area (CI_BCTypes bc_type_enum, CI_BCEntityTypes bc_area_enum, int entity_id)
	Determine whether a BC temperature is on a shell area. Valid for convection and temperature and on top, bottom, gradient, and middle.

bool	heatflux_is_on_shell_area (CI_BCEntityTypes bc_area_enum, int entity_id)
	Determine whether a BC heatflux is on a shell area.

double	get_heatflux_on_area (CI_BCEntityTypes bc_area_enum, int entity_id)
	Get the heatflux on a specified area.

int	get_cfd_type (int entity_id)
	Get the cfd subtype for a specified cfd BC.

double	get_contact_pair_friction_value (int entity_id)
	Get the contact pair's friction value.

double	get_contact_pair_tolerance_value (int entity_id)
	Get the contact pair's upper bound tolerance value.

double	get_contact_pair_tol_lower_value (int entity_id)
	Get the contact pair's lower bound tolerance value.

bool	get_contact_pair_tied_state (int entity_id)
	Get the contact pair's tied state.

bool	get_contact_pair_general_state (int entity_id)
	Get the contact pair's general state.

bool	get_contact_pair_exterior_state (int entity_id)
	Get the contact pair's exterior state.

int	get_displacement_coord_system (int entity_id)
	Get the displacement's coordinate system id.

const double *	get_displacement_dof_values (int entity_id)
	This function only available from C++ Get the displacement's dof values

const int *	get_displacement_dof_signs (int entity_id)
	This function only available from C++ Get the displacement's dof signs

const double *	get_velocity_dof_values (int entity_id)
	This function only available from C++ Get the velocity's dof values

const int *	get_velocity_dof_signs (int entity_id)
	This function only available from C++ Get the velocity's dof signs

std::string	get_velocity_combine_type (int entity_id)
	Get the velocity's combine type which is "Overwrite", "Average", "SmallestCombine", or "LargestCombine".

const double *	get_acceleration_dof_values (int entity_id)
	This function only available from C++ Get the acceleration's dof values

const int *	get_acceleration_dof_signs (int entity_id)
	This function only available from C++ Get the acceleration's dof signs

std::string	get_acceleration_combine_type (int entity_id)
	Get the acceleration's combine type which is "Overwrite", "Average", "SmallestCombine", or "LargestCombine".

std::string	get_displacement_combine_type (int entity_id)
	Get the displacement's combine type which is "Overwrite", "Average", "SmallestCombine", or "LargestCombine".

double	get_pressure_value (int entity_id)
	Get the pressure value.

std::string	get_pressure_function (int entity_id)
	Get the pressure function.

double	get_force_magnitude (int entity_id)
	Get the force magnitude from a force.

double	get_moment_magnitude (int entity_id)
	Get the moment magnitude from a force.

std::array< double, 3 >	get_force_direction_vector (int entity_id)
	Get the direction vector from a force.

std::array< double, 3 >	get_force_moment_vector (int entity_id)
	Get the moment vector from a force.

std::string	get_constraint_type (int constraint_id)
	Get the type of a specified constraint.

std::string	get_constraint_reference_point (int constraint_id)
	Get the reference point of a specified constraint.

std::string	get_constraint_dependent_entity_point (int constraint_id)
	Get the dependent entity of a specified constraint.

double	get_material_property (CI_MaterialProperty material_property_enum, int entity_id)
	Get the specified material property value.

int	get_media_property (int entity_id)
	Get the media property value.

std::vector< std::string >	get_material_name_list ()
	Get a list of all defined material names.

std::vector< std::string >	get_media_name_list ()
	Get a list of all defined material names.

std::string	get_material_name (int material_id)
	Get the name of the material (or cfd media) with the given id.

double	calculate_timestep_estimate (std::string entity_type, std::vector< int > entity_ids)
	Calculates time step estimate on elements of/in entity type: "Tet" or "Hex" or "Volume" or "Block" or "Group" The hexes or tets must belong to a single block and that block must have a material assigned to it. That material must have elastic_modulus, poisson_ratio, and density defined.

double	calculate_timestep_estimate_with_props (std::string entity_type, std::vector< int > entity_id_list, double density, double youngs_modulus, double poissons_ratio)
	Calculates time step estimate on elements of/in entity type: "Tet" or "Hex" or "Volume" or "Block" or "Group".

double	get_target_timestep ()
	Returns the target timestep threshold used in the timestep density multiplier metric.

std::vector< std::array< double, 3 > >	snap_locations_to_geometry (const std::vector< std::array< double, 3 > > &locations, std::string entity_type, int entity_id, double tol)
	Snaps xyz locations to closest point on entity. Then snaps to child curves or vertices within given tolerance. Vertices snapped to before curves.

std::vector< double >	measure_between_entities (std::string entity_type1, int entity_id1, std::string entity_type2, int entity_id2)
	returns distance between two geometry entities and their closest points

std::vector< int >	gather_surfaces_by_orientation (std::vector< int > seed_surf_ids, std::vector< int > all_surf_ids)
	Gathers connected surfaces to those in 'seed_surf_ids' that use common curves in an opposite sense. For example, if a surface A in 'seed_surf_ids' uses a curve in the FORWARD sense and it can find surface, B, that uses that same curve in a REVERSED sense, it adds B to the list. The search continues with all of surface B's curves. All the surfaces in 'seed_surf_ids' will be returned. If the user wants to limit the scope of possible surfaces that are searched, 'all_surf_ids' can be populated. If 'all_surf_ids' is empty, all surfaces are candidates. This function can be helpful in finding enclosures when you have a set of non-manifold surfaces.

void	set_label_type (const char *entity_type, int label_flag)
	make calls to SVDrawTool::set_label_type

int	get_label_type (const char *entity_type)
	make calls to SVDrawTool::get_label_type

std::vector< int >	get_coordinate_systems_id_list ()
	get a list of coordinate system ids

std::vector< double >	get_n_largest_distances_between_meshes (int n, std::string entity_type1, std::vector< int > ids1, std::string entity_type2, std::vector< int > ids2)
	Finds the 'n' largest distances between two meshes. These distances are from the nodes on the entities of 'ids1' to the elements in 'ids2'. Only triangle and face (quads) element types are supported. It is assumed that the meshes approximately line up. Each distance is returned with three values:

void	compare_geometry_and_mesh (std::vector< int > volume_ids, std::vector< int > block_ids, std::vector< int > hex_ids, std::vector< int > tet_ids, double tolerance, int &returned_unmatched_volumes_count, int &returned_unmatched_elements_count, std::vector< int > &returned_full_matches_group_ids_list, std::vector< int > &returned_partial_matches_group_ids_list, int &returned_volume_curves_group_id)
	Compare the geometry and mesh.

double	get_dbl_sculpt_default (const char *variable)
	return sculpt default value

int	get_int_sculpt_default (const char *variable)

bool	get_bool_sculpt_default (const char *variable)

std::string	get_string_sculpt_default (const char *variable)

double	get_blunt_tangency_default_depth (int vert_id, double angle, bool add_material)
	get default depth value for blunt tangency operation

std::vector< double >	get_reduce_bolt_core_default_dimensions (int vol_id)
	get default dimensions for reduce vol bolt core operation

double	get_bolt_diameter (int vol_id)
	get diameter of bolt shank

std::vector< double >	get_bolt_axis (int vol_id)
	get axis vector of bolt

std::vector< int >	get_2D_sheet_volumes (int vol_id)
	get the 2D sheet volumes associated with this 3D thin volume

int	get_3D_thin_volume (int vol_id)
	get the 3D sheet volume associated with this 2D sheet volume

Boundary Layer Support
int	get_next_boundary_layer_id ()

bool	is_boundary_layer_id_available (int boundary_layer_id)

std::string	get_boundary_layer_algorithm (int boundary_layer_id)

std::vector< int >	get_boundary_layers_by_base (const std::string &base_type, int base_id)

std::vector< int >	get_boundary_layers_by_pair (const std::string &base_type, int base_id, int parent_id)

bool	get_boundary_layer_uniform_parameters (int boundary_layer_id, double &returned_first_row_height, double &returned_growth_factor, int &returned_number_rows)

bool	get_boundary_layer_aspect_first_parameters (int boundary_layer_id, double &returned_first_row_aspect, double &returned_growth_factor, int &returned_number_rows)

bool	get_boundary_layer_aspect_last_parameters (int boundary_layer_id, double &returned_first_row_height, int &returned_number_rows, double &returned_last_row_aspect)

bool	get_boundary_layer_curve_surface_pairs (int boundary_layer_id, std::vector< int > &returned_curve_list, std::vector< int > &returned_surface_list)

bool	get_boundary_layer_surface_volume_pairs (int boundary_layer_id, std::vector< int > &returned_surface_list, std::vector< int > &returned_volume_list)

bool	get_boundary_layer_vertex_intersection_types (std::vector< int > &returned_vertex_list, std::vector< int > &returned_surface_list, std::vector< std::string > &returned_types)

bool	get_boundary_layer_curve_intersection_types (std::vector< int > &returned_curve_list, std::vector< int > &returned_volume_list, std::vector< std::string > &returned_types)

bool	get_boundary_layer_continuity (int boundary_layer_id)

std::vector< int >	get_boundary_layer_id_list ()

std::vector< int >	sizing_source_ids ()
	Functions to support sizing source sizing function.

double	sizing_source_min_size ()

double	sizing_source_max_size ()

std::array< double, 3 >	sizing_source_scale (int id)

std::array< double, 3 >	sizing_source_rotation_vector (int id)

double	sizing_source_rotation_angle (int id)

std::array< double, 3 >	sizing_source_origin (int id)

double	sizing_source_size (int id)

double	sizing_source_growth_factor (int id)

void	set_capture_color (bool is_captured, std::array< double, 4 > color)

void	draw_curve_capture (const std::string &geometry_type, const std::vector< int > &ids, bool is_captured)

void	draw_curve_capture_from_size (const std::string &geometry_type, const std::vector< int > &ids, double percent_captured, double mesh_size)

std::vector< CFD_BC_Entity >	get_all_cfd_bcs ()

std::vector< AssemblyItem >	get_assembly_items ()

std::vector< AssemblyItem >	get_top_level_assembly_items ()

std::vector< AssemblyItem >	get_assembly_children (int assembly_id)

std::vector< int >	get_volumes_for_node (std::string node_name, int node_instance)

std::vector< MeshErrorFeedback * >	get_mesh_errors ()

int	get_mesh_error_count ()

Geometry from ids
CubitInterface::Body	body (int id_in)
	Gets the body object from an ID.

CubitInterface::Volume	volume (int id_in)
	Gets the volume object from an ID.

CubitInterface::Surface	surface (int id_in)
	Gets the surface object from an ID.

CubitInterface::Curve	curve (int id_in)
	Gets the curve object from an ID.

CubitInterface::Vertex	vertex (int id_in)
	Gets the vertex object from an ID.

void	reset ()
	Executes a reset within cubit.

Geometry Creation Functions
Body	brick (double width, double depth=-1, double height=-1)
	Creates a brick of specified width, depth, and height.

Body	sphere (double radius, int x_cut=0, int y_cut=0, int z_cut=0, double inner_radius=0)
	Creates all or part of a sphere.

Body	prism (double height, int sides, double major, double minor)
	Creates a prism of the specified dimensions.

Body	pyramid (double height, int sides, double major, double minor, double top=0.0)
	Creates a pyramid of the specified dimensions.

Body	cylinder (double height, double x_radius, double y_radius, double top_radius)
	creates a cylinder of the specified dimensions

Body	torus (double center_radius, double swept_radius)
	creates a torus of the specified dimensions

Vertex	create_vertex (double x=0, double y=0, double z=0)
	Creates a vertex at a x,y,z.

Curve	create_curve (Vertex v0, Vertex v1)
	Creates a curve between two vertices.

Curve	create_arc_curve (Vertex v0, Vertex v1, std::array< double, 3 > intermediate_point)
	Creates a arc curve using end vertices and an intermediate point.

Curve	create_spline (std::vector< std::array< double, 3 > > points, int surface_id)
	create spline through the given 3d points

Body	create_surface (std::vector< Curve > curves)
	Creates a surface from boundary curves.

std::vector< Body >	sweep_curve (std::vector< Curve > curves, std::vector< Curve > along_curves, double draft_angle=0, int draft_type=0, bool rigid=false)
	Create a Body or a set of Bodies from a swept curve.

Body	copy_body (Body init_body)
	Creates a copy of the input Body.

Geometry Manipulation Functions
std::vector< Body >	tweak_surface_offset (std::vector< Surface > surfaces, std::vector< double > distances)
	Performs a tweak surface offset command.

std::vector< CubitInterface::Body >	tweak_surface_remove (std::vector< Surface > surfaces, bool extend_ajoining=true, bool keep_old=false, bool preview=false)
	Removes a surface from a body and extends the surrounding surfaces if extend_ajoining is true.

std::vector< CubitInterface::Body >	tweak_curve_remove (std::vector< Curve > curves, bool keep_old=false, bool preview=false)
	Removes a curve from a body and extends the surrounding surface to fill the gap.

std::vector< Body >	tweak_curve_offset (std::vector< Curve > curves, std::vector< double > distances, bool keep_old=false, bool preview=false)
	Performs a tweak curve offset command.

std::vector< Body >	tweak_vertex_fillet (std::vector< Vertex > verts, double radius, bool keep_old=false, bool preview=false)
	Performs a tweak vertex fillet command.

std::vector< Body >	subtract (std::vector< CubitInterface::Body > tool_in, std::vector< CubitInterface::Body > from_in, bool imprint_in=false, bool keep_old_in=false)
	Performs a boolean subtract operation.

std::vector< Body >	unite (std::vector< CubitInterface::Body > body_in, bool keep_old_in=false)
	Performs a boolean unite operation.

void	move (Entity entity, std::array< double, 3 > vector, bool preview=false)
	Moves the Entity the specified vector.

void	scale (Entity entity, double factor, bool preview=false)
	Scales the Entity according to the specified factor.

void	reflect (Entity entity, std::array< double, 3 > axis, bool preview=false)
	Reflect the Entity about the specified axis.

Machine Learning Support
bool	load_ML (std::string model_type="all")
	load the machine learning training data

void	unload_ML (std::string model_type="all")
	unload the machine learning training data

std::vector< std::vector< double > >	get_ML_operation_features (std::vector< std::string > ml_op_names, std::vector< size_t > entity1_ids, std::vector< size_t > entity2_ids, std::vector< std::vector< double > > params, double mesh_size, bool reduced_features=false)
	get machine learning features for a list of cubit operations

std::vector< std::vector< double > >	get_ML_operation_features_ (std::vector< std::string > ml_op_names, std::vector< int > entity1_ids, std::vector< int > entity2_ids, std::vector< std::vector< double > > params, double mesh_size, bool reduced_features=false)

std::vector< std::vector< double > >	get_ML_predictions (std::vector< std::string > ml_op_names, std::vector< size_t > entity1_ids, std::vector< size_t > entity2_ids, std::vector< std::vector< double > > params, double mesh_size, bool reduced_features=false)
	get machine learning predictions for the list of operations and corresponding entities. This function will load the ML training data if not already loaded. It will first compute features and then run predictions from training data. Uses scikit-learn EDT (Ensembles of Decision Trees) for predictions

std::string	get_ML_classification (std::string geom_type, size_t ent_id)
	return the name of the classification category for this surface or volume. uses same methods as get_ML_predictions for volume_no_op or classify_surface. Same as calling get_ML_operation_features + get_ML_predictions with volume_no_op and classify_surface, but returns category with highest probablity.

std::vector< std::string >	get_ML_classifications (std::string geom_type, std::vector< size_t > ent_ids)
	same as get_ML_classification, but classifies multiple volumes or surfaces with a single call (more efficient)

std::vector< std::string >	get_ML_classification_categories (std::string geom_type)
	return a list of strings representing all possible calssification categories for volumes or surfaces

bool	ML_train (std::string geom_type)
	force a new training. Currently implemented for only classification methods, volume_no_op and surface_no_op.

std::vector< std::string >	get_ML_operation_feature_types (const std::string ml_op_name, bool reduced_features=false)
	for the given operation type described by get_ML_operation_features, return a vector of strings indicating the type of data for each feature in the vector. Will return one of the following for each index:

std::vector< std::string >	get_ML_operation_feature_names (const std::string ml_op_name, bool reduced_features=false)
	for the given operation type described by get_ML_operation_features, return a vector of strings indicating the name of data for each feature in the vector.

int	get_ML_operation_feature_size (const std::string ml_op_name, const bool reduced_features=false)
	for the given operation type described by get_ML_operation_features, return the expected size of the feature vector

int	get_ML_operation_label_size (const std::string ml_op_name)
	for the given operation type return length of label vector the expected size of the feature vector

std::vector< std::string >	get_ML_classification_models ()
	get the available classification ML model names

std::vector< std::string >	get_ML_regression_models ()
	get the available regression ML model names

int	get_ML_model_ID (std::string)
	get a unique ID for the given operation/model name

std::string	get_ML_model_name (int model_ID)
	get the name for the given operation/model ID

std::vector< std::string >	get_ML_operation (const std::string op_name, const size_t entity_id1, const size_t entity_id2, const std::vector< double > params, const double small_curve_size, const double mesh_size)
	get the command, display and preview strings for a given ML operation type

std::vector< double >	get_ML_feature_importances (const std::string op_name)
	return the vector of feature importances for a given operation type

double	get_ML_feature_distance (const std::string op_name, std::vector< double > &f1, std::vector< double > &f2)
	feature distance is defined as a weighted distance between two feature vectors of the same size. Features are weighted on EDT (ensembles of decision trees) importance values.

void	set_ML_base_user_dir (const std::string path, const bool print_info=false)
	set the path to any user training data. (classification only)

CubitInterface Control
const int	CI_ERROR = -1

void	init (const std::vector< std::string > &argv)
	Use init to initialize Cubit. Using a blank list as the input parameter is acceptable.

int	destroy ()
	Closes the current journal file.

void	create_user_interface ()

void	ensure_init ()

void	report_usage ()

void	process_input_files ()
	C++ only

void	set_playback_handler (ExternalPlaybackHandler *hdlr)
	C++ only

ExternalPlaybackHandler *	get_playback_handler ()

void	enable_signal_handling (bool on)
	initialize/uninitialize signal handling C++ only

void	print_info (const std::string &message)
	Print a message using the cubit message handler.

void	set_cubit_message_handler (CubitMessageHandler *hdlr)
	redirect the output from cubit.

CubitMessageHandler *	get_cubit_message_handler ()
	get the default message handler

void	set_cubit_message_error_handler (CubitMessageErrorHandler *hdlr)
	provide error context

void	set_exit_handler (ExternalExitHandler *hdlr)
	Set the exit handler.

Detailed Description

The CubitInterface provides a Python/C++ interface into Cubit.

It provides an object oriented structure that allows a developer to manipulate objects familiar to Cubit such as bodies, volumes, surfaces, etc. It also allows developers to create and manipulate as well as query geometry.

Function Documentation

◆ add_entities_to_group()

void add_entities_to_group	(	int	group_id,
		const std::vector< int > &	entity_id,
		const std::string &	entity_type
	)

Add a list of entities to a specific group.

CubitInterface::add_entities_to_group (3, list, "surface" );

CubitInterface::add_entities_to_group

void add_entities_to_group(int group_id, const std::vector< int > &entity_id, const std::string &entity_type)

Add a list of entities to a specific group.

cubit.add_entities_to_group(3, list, "surface" )

Parameters

group_id	ID of group to which the entity will be added
list	a vector of IDs of the entities to be added to the group
entity_type	Type of the entity to be added to the group. Note that this function is valid only for geometric entities

◆ add_entity_to_group()

void add_entity_to_group	(	int	group_id,
		int	entity_id,
		const std::string &	entity_type
	)

Add a specific entity to a specific group.

CubitInterface::add_entity_to_group (3, 22, "surface" );

CubitInterface::add_entity_to_group

void add_entity_to_group(int group_id, int entity_id, const std::string &entity_type)

Add a specific entity to a specific group.

cubit.add_entity_to_group(3, 22, "surface" )

Parameters

group_id	ID of group to which the entity will be added
entity_id	ID of the entity to be added to the group
entity_type	Type of the entity to be added to the group. Note that this function is valid only for geometric entities

◆ add_filename_to_recent_file_list()

void add_filename_to_recent_file_list ( std::string & filename )

Adds the filename to the recent file list.

Parameters

filename to be added to the recent file list.

◆ add_filter_type()

void add_filter_type ( const std::string & filter_type )

Add a filter type.

◆ are_adjacent_curves()

bool are_adjacent_curves ( std::vector< int > curve_ids )

return whether two or more curves share at least one manifold vertex (common vertex is part of exactly two curves)

Parameters

curve_ids IDs of curves to query

Returns: whether the curves are adjacent

◆ are_adjacent_surfaces()

bool are_adjacent_surfaces ( std::vector< int > surface_ids )

return whether two or more surfaces share at least one manifold curve (common curve is part of exactly two surfaces)

Parameters

surface_ids IDs of surfaces to query

Returns: whether the surface are adjacent

◆ auto_size_needs_to_be_calculated()

bool auto_size_needs_to_be_calculated ( )

Get whether the auto size needs to be calculated. Calculating the auto size may be expensive on complex models. The auto size may be outdated if the model has changed.

◆ best_edge_to_collapse_interior_node()

int best_edge_to_collapse_interior_node ( int node_id )

Finds the best edge to collapse this node along to remove the interior node.

Returns: int - return the id of the edge, 0 if no edge found

◆ body()

CubitInterface::Body body ( int id_in )

Gets the body object from an ID.

Parameters

id_in The ID of the body

Returns: The body object

◆ brick()

Body brick	(	double	width,
		double	depth = `-1`,
		double	height = `-1`
	)

Creates a brick of specified width, depth, and height.

Parameters

[in]	width	The width of the brick being created
[in]	depth	The depth of the brick being created
[in]	height	The height of the brick being created

Returns: A Body object of the newly created brick

◆ calculate_timestep_estimate()

double calculate_timestep_estimate	(	std::string	entity_type,
		std::vector< int >	entity_ids
	)

Calculates time step estimate on elements of/in entity type: "Tet" or "Hex" or "Volume" or "Block" or "Group" The hexes or tets must belong to a single block and that block must have a material assigned to it. That material must have elastic_modulus, poisson_ratio, and density defined.

double cubit.calculate_timestep_estimate("volume" , vol_list)

Parameters

entity_type	Specifies the entity type (hex, tet, volume, block, group)
ids	Specifies the ids of the entity type

Returns: time step estimate (smallest time step)

◆ calculate_timestep_estimate_with_props()

double calculate_timestep_estimate_with_props	(	std::string	entity_type,
		std::vector< int >	entity_id_list,
		double	density,
		double	youngs_modulus,
		double	poissons_ratio
	)

Calculates time step estimate on elements of/in entity type: "Tet" or "Hex" or "Volume" or "Block" or "Group".

double cubit.calculate_timestep_estimate_with_props("volume" , vol_list, 2.7, 70, 0.35 )

Parameters

entity_type	Specifies the entity type (hex, tet, volume, block, group)
ids	Specifies the ids of the entity type
density	Specifies the density
youngs_modulus	Specifies the Young's modulus
poissons_ratio	Specifies the Poisson's ratio

Returns: time step estimate (smallest time step)

◆ clear_drawing_set()

void clear_drawing_set ( const std::string & set_name )

Clear a named drawing set (this is for mesh preview)

◆ clear_highlight()

void clear_highlight ( )

Clear all entity highlights.

◆ clear_picked_list()

void clear_picked_list ( )

Clear the picked list.

◆ clear_preview()

void clear_preview ( )

Clear preview graphics without affecting other display settings.

◆ cmd()

bool cmd ( const char * input_string )

Pass a command string into Cubit.

Passing a command into Cubit using this method will result in an immediate execution of the command. The command is passed directly to Cubit without any validation or other checking.

CubitInterface::cmd ("create brick x 10" );

CubitInterface::cmd

bool cmd(const char *input_string)

Pass a command string into Cubit.

cubit.cmd("brick x 10" )

Parameters

input_string Pointer to a string containing a complete Cubit command

◆ compare_geometry_and_mesh()

void compare_geometry_and_mesh	(	std::vector< int >	volume_ids,
		std::vector< int >	block_ids,
		std::vector< int >	hex_ids,
		std::vector< int >	tet_ids,
		double	tolerance,
		int &	returned_unmatched_volumes_count,
		int &	returned_unmatched_elements_count,
		std::vector< int > &	returned_full_matches_group_ids_list,
		std::vector< int > &	returned_partial_matches_group_ids_list,
		int &	returned_volume_curves_group_id
	)

Compare the geometry and mesh.

◆ complete_filename()

void complete_filename	(	std::string &	line,
		int &	num_chars,
		bool &	found_quote
	)

Get the file completion inside a quote based on files in the current directory. This handles completion of directories as well as filtering on specific types (.jou, .g, .sat, etc.)

Parameters

line	[in/out] the line to be completed and the completed line num_chars [out] the number of characters added to the input line. If 0 there are multiple completions found_quote [out] if the end of quote was found

◆ contains_virtual()

bool contains_virtual	(	const std::string &	geometry_type,
		int	entity_id
	)

Query virtualality of an entity's children.

if (CubitInterface::contains_virtual ("surface" , 134)) . . .

CubitInterface::contains_virtual

bool contains_virtual(const std::string &geometry_type, int entity_id)

Query virtualality of an entity's children.

if cubit.contains_virtual("surface" , 134)):

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

◆ convection_is_on_shell_area()

bool convection_is_on_shell_area	(	int	entity_id,
		CI_BCEntityTypes	shell_area_enum
	)

Determine whether a BC convection is on a shell top or bottom. Valid for convection.

Parameters

entity_id	Id of the BC convection
shell_area	enum of BCEntityTypes. Use 7 to check if on top, 8 to check if on bottom

Returns: true if convection is on the shell area, otherwise false

◆ convection_is_on_solid()

bool convection_is_on_solid ( int entity_id )

Determine whether a BC convection is on a solid. Valid for convection.

Parameters

entity_id Id of the BC convection

Returns: true if convection is on a solid, otherwise false

◆ copy_body()

Body copy_body ( Body init_body )

Creates a copy of the input Body .

Parameters

[in] init_body The Body to be copied

Returns: A Body identical to the input Body

◆ create_arc_curve()

Curve create_arc_curve	(	Vertex	v0,
		Vertex	v1,
		std::array< double, 3 >	intermediate_point
	)

Creates a arc curve using end vertices and an intermediate point.

Parameters

[in]	v0	The start vertex
[in]	v1	The end vertex
[in]	intermediate_point	intermideate coord

Returns: A Curve object

◆ create_curve()

Curve create_curve	(	Vertex	v0,
		Vertex	v1
	)

Creates a curve between two vertices.

Parameters

[in]	v0	The start vertex
[in]	v1	The end vertex

Returns: A Curve object

◆ create_new_group()

int create_new_group ( )

Create a new group.

Returns: group_id ID of new group

◆ create_spline()

Curve create_spline	(	std::vector< std::array< double, 3 > >	points,
		int	surface_id
	)

create spline through the given 3d points

Parameters

[in]	coordinates	of points on the spline, in order
[in]	id	of the surface on which to create the spline

Returns: the created curve object

◆ create_surface()

Body create_surface ( std::vector< Curve > curves )

Creates a surface from boundary curves.

Parameters

[in] curves A list of curve objects from which to make the surface

Returns: A Body object of the newly created Surface

◆ create_user_interface()

void create_user_interface ( )

◆ create_vertex()

Vertex create_vertex	(	double	x = `0`,
		double	y = `0`,
		double	z = `0`
	)

Creates a vertex at a x,y,z.

Parameters

[in]	x	The x location of the vertex (default to 0)
[in]	y	The y location of the vertex (default to 0)
[in]	z	The z location of the vertex (default to 0)

Returns: A Vertex object

◆ current_selection_count()

int current_selection_count ( )

Get the current count of selected items.

◆ curve()

CubitInterface::Curve curve ( int id_in )

Gets the curve object from an ID.

Parameters

id_in The ID of the curve

Returns: The curve object

◆ cylinder()

Body cylinder	(	double	height,
		double	x_radius,
		double	y_radius,
		double	top_radius
	)

creates a cylinder of the specified dimensions

Parameters

[in]	hi	the height of the cylinder
[in]	r1	radius in the x direction
[in]	r2	radius in the y direction
[in]	r3	used to adjust the top. If set to 0, will produce a cone. If set to the larger of r1 or r2 it will create a straight cylinder.

Returns: A body object of the newly created cylinder

◆ delete_all_groups()

void delete_all_groups ( )

Delete all groups.

◆ delete_group()

void delete_group ( int group_id )

Delete a specific group.

Parameters

group_id ID of group to delete

◆ destroy()

int destroy ( )

Closes the current journal file.

◆ developer_commands_are_enabled()

bool developer_commands_are_enabled ( )

This checks to see whether developer commands are enabled.

Returns: True if developer commands are enabled, otherwise False

◆ draw_curve_capture()

void draw_curve_capture	(	const std::string &	geometry_type,
		const std::vector< int > &	ids,
		bool	is_captured
	)

◆ draw_curve_capture_from_size()

void draw_curve_capture_from_size	(	const std::string &	geometry_type,
		const std::vector< int > &	ids,
		double	percent_captured,
		double	mesh_size
	)

◆ enable_signal_handling()

void enable_signal_handling ( bool on )

initialize/uninitialize signal handling C++ only

Parameters

on	Set to true to initialize signal handling, false to uninitialize.

◆ ensure_init()

void ensure_init ( )

◆ entity_exists()

bool entity_exists	(	const std::string &	entity_type,
		int	id
	)

return whether an entity of specified ID exists

bool exists = CubitInterface::entity_exists ("surface" , 12);

CubitInterface::entity_exists

bool entity_exists(const std::string &entity_type, int id)

return whether an entity of specified ID exists

Parameters

entity_type	Type of the entity being queried
id	ID of entity

Returns: true of false whether entity exists

◆ estimate_curve_mesh_size()

double estimate_curve_mesh_size	(	int	curve_id,
		double	percent_capture
	)

Return estimated mesh size for a curve such that the sum of edge lengths are within a precentage of the curve length.

Parameters

curve_id The Curve to estimate mesh size percent_capture The requested percentage of capture for a curve

Returns: The length of one mesh edge, or -1 on error.

◆ estimate_curves_mesh_size()

double estimate_curves_mesh_size	(	const std::string &	geometry_type,
		const std::vector< int > &	geom_id,
		double	percent_capture
	)

Return estimated mesh size for curves related to an entity such that the sum of edge lengths are within a precentage of the curve length. The smallest size for all curves is returned.

Parameters

geometry_type The type of geometry entity to esitmate mesh size geom_id The Id of the geometry entity to estimate mesh size percent_capture The requested percentage of capture for a curve

Returns: The length of one mesh edge, or -1 on error.

◆ estimate_merge_tolerance()

double estimate_merge_tolerance	(	std::vector< int >	target_volume_ids,
		bool	accurate_in = `false`,
		bool	report_in = `false`,
		double	low_value_in = `-1.0`,
		double	high_value_in = `-1.0`,
		int	number_calculations_in = `10`,
		bool	return_calculations_in = `false`,
		std::vector< double > *	merge_tolerance_list = `NULL`,
		std::vector< int > *	number_of_proximities_list = `NULL`
	)

Estimate a good merge tolerance for the passed-in volumes.

Given a list of volumes try to estimate a good merge tolerance.

Parameters

target_volume_ids	List of volumes ids to examine.
accurate_in	Flag specifying whether to do a lengthier, more accurate calculation.
report_in	Flag specifying whether to report results to the command line.
lo_val_in	Low value of range to search for merge tolerance.
hi_val_in	High value of range to search for merge tolerance.
num_calculations_in	Number of intervals to split search range up into.
return_calculations_in	Flag specifying whether to return the number of proximities at each step.
merge_tols	List containing merge tolerance at each step of calculation.
num_proximities	List containing number of proximities at each step of calculation.

◆ estimate_morph_num_procs()

int estimate_morph_num_procs	(	const std::vector< int > &	volume_ids,
		double	size
	)

Return recommended numprocs to run morph on this model at the specified size.

Parameters

volume_ids The Id of the volumes that will be meshed with morph size The overlay grid size

Returns: The recommended number of procs to use for morph

◆ estimate_morph_tet_element_count()

size_t estimate_morph_tet_element_count	(	const std::vector< int > &	volume_ids,
		double	size,
		bool	keep_void
	)

Return estimated tet element count for volumes.

Parameters

volume_ids The Id of the volumes to estimate element count size The overlay grid size keep_void Mesh the void space (e.g. air, enclosures, etc.)

Returns: The estimated number of tet elements morph will generate

◆ evaluate_exterior_angle()

std::vector< int > evaluate_exterior_angle	(	const std::vector< int > &	curve_list,
		const double	test_angle
	)

find all curves in the given list with an exterior angle (the angle between surfaces) less than the test angle. This is equivalent to the df parser "exterior_angle" test. (draw curve with exterior_angle >90)

Parameters

curve_list	a list of curve ids (integers)
test_angle	the value (in degrees) that will be used in testing the exterior angle

Returns: A list (python tuple) of curve ids that meet the angle test.

◆ evaluate_exterior_angle_at_curve()

double evaluate_exterior_angle_at_curve	(	int	curve_id,
		int	volume_id
	)

return exterior angle at a single curve with respect to a volume

Parameters

curve id (integer) volume id (integer)

Returns: angle in degrees

◆ evaluate_surface_angle_at_vertex()

double evaluate_surface_angle_at_vertex	(	int	surf_id,
		int	vert_id
	)

return interior angle at a vertex on a specified surface

Parameters

surf	id (integer) vert id (integer)

Returns: angle in degrees

◆ exodus_sizing_function_file_exists()

bool exodus_sizing_function_file_exists ( )

return whether the exodus sizing funnction file exists

Returns: whether the exodus sizing function file exists

◆ find_floating_volumes()

void find_floating_volumes	(	std::vector< int >	target_volume_ids,
		std::vector< int > &	returned_floating_id_list
	)

Get the list of volumes with no merged children.

Given a list of volumes find all of the volumes that are not attached to any other entity through a merge.

Parameters

target_volume_ids	List of volumes ids to examine.
volume_list	User specified list where the ids of floating volumes are returned

◆ find_nonmanifold_curves()

void find_nonmanifold_curves	(	std::vector< int >	target_volume_ids,
		std::vector< int > &	returned_curve_list
	)

Get the list of nonmanifold curves in the volume list.

Given a list of volumes find all of the nonmanifold curves. This is found by seeing if there is at least one merged face attached to any merged curve. If there exist merged curves that don't belong to merged faces it represents a nonmanifold case.

Parameters

target_volume_ids	List of volumes ids to examine.
curve_list	User specified list where the ids of nonmanifold curves are returned

◆ find_nonmanifold_vertices()

void find_nonmanifold_vertices	(	std::vector< int >	target_volume_ids,
		std::vector< int > &	returned_vertex_list
	)

Get the list of nonmanifold vertices in the volume list.

Given a list of volumes find all of the nonmanifold vertices. This is found by seeing if there is at least one merged curve attached to any merged vertex. If there exist merged vertices that don't belong to merged curves it represents a nonmanifold case.

Parameters

target_volume_ids	List of volumes ids to examine.
vertex_list	User specified list where the ids of nonmanifold vertices are returned

◆ flush_graphics()

void flush_graphics ( )

Flush the graphics.

◆ gather_surfaces_by_orientation()

std::vector< int > gather_surfaces_by_orientation	(	std::vector< int >	seed_surf_ids,
		std::vector< int >	all_surf_ids
	)

Gathers connected surfaces to those in 'seed_surf_ids' that use common curves in an opposite sense. For example, if a surface A in 'seed_surf_ids' uses a curve in the FORWARD sense and it can find surface, B, that uses that same curve in a REVERSED sense, it adds B to the list. The search continues with all of surface B's curves.
All the surfaces in 'seed_surf_ids' will be returned. If the user wants to limit the scope of possible surfaces that are searched, 'all_surf_ids' can be populated. If 'all_surf_ids' is empty, all surfaces are candidates. This function can be helpful in finding enclosures when you have a set of non-manifold surfaces.

                  seed_surf_ids = [ 15, 19, 24, 88 ] 
               
                  all_surf_ids = [ 15, 19, 24, 88, 26, 104, 44, 23, 95, 342, 533, 23, ... ] 
               
                  orientation_surfs = cubit.gather_surfaces_by_orientation( seed_surf_ids, all_surf_ids )

◆ get_2D_sheet_volumes()

std::vector< int > get_2D_sheet_volumes ( int vol_id )

get the 2D sheet volumes associated with this 3D thin volume

Parameters

vol_id volume ID. Should represent a 3D thin volume

Returns: ids of the 2D sheet volumes associated with the 3D thin volume

◆ get_3D_thin_volume()

int get_3D_thin_volume ( int vol_id )

get the 3D sheet volume associated with this 2D sheet volume

Parameters

vol_id volume ID. Should represent a 2D sheet volume

Returns: id of the 3D thin volume associated with the 2D sheet volume

◆ get_acceleration_combine_type()

std::string get_acceleration_combine_type ( int entity_id )

Get the acceleration's combine type which is "Overwrite", "Average", "SmallestCombine", or "LargestCombine".

Parameters

entity_id Id of the acceleration

Returns: The combine type for the given acceleration

◆ get_acceleration_dof_signs()

const int * get_acceleration_dof_signs ( int entity_id )

This function only available from C++ Get the acceleration's dof signs

Parameters

entity_id Id of the acceleration

Returns: An array of ints which are the dof signs

◆ get_acceleration_dof_values()

const double * get_acceleration_dof_values ( int entity_id )

This function only available from C++ Get the acceleration's dof values

Parameters

entity_id Id of the acceleration

Returns: An array of doubles which are the dof values

◆ get_acis_version()

std::string get_acis_version ( )

Get the Acis version number.

Returns: A string containing the Acis version number

◆ get_acis_version_as_int()

int get_acis_version_as_int ( )

Get the Acis version number as an int.

Returns: An integer containing the Acis version number

◆ get_adjacent_surfaces()

std::vector< int > get_adjacent_surfaces	(	const std::string &	geometry_type,
		int	entity_id
	)

Get a list of adjacent surfaces to a specified entity.

For a specified entity, find all surfaces that own the entity and surfaces that touch the surface that owns this entity.

std::vector<int> surface_id_list;

surface_id_list = CubitInterface::get_adjacent_surfaces ("curve" , 22);

CubitInterface::get_adjacent_surfaces

std::vector< int > get_adjacent_surfaces(const std::string &geometry_type, int entity_id)

Get a list of adjacent surfaces to a specified entity.

surface_id_list = cubit.get_adjacent_surfaces("curve" , 22)

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

Returns: A list (python tuple) of surfaces ids

◆ get_adjacent_volumes()

std::vector< int > get_adjacent_volumes	(	const std::string &	geometry_type,
		int	entity_id
	)

Get a list of adjacent volumes to a specified entity.

For a specified entity, find all volumes that own the entity and volumes that touch the volume that owns this entity.

std::vector<int> volume_id_list;

volume_id_list = CubitInterface::get_adjacent_volumes ("curve" , 22);

CubitInterface::get_adjacent_volumes

std::vector< int > get_adjacent_volumes(const std::string &geometry_type, int entity_id)

Get a list of adjacent volumes to a specified entity.

volume_id_list = cubit.get_adjacent_volumes("curve" , 22)

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

Returns: A list (python tuple) of volume ids

◆ get_all_cfd_bcs()

std::vector< CFD_BC_Entity > get_all_cfd_bcs ( )

◆ get_all_exodus_times()

std::vector< double > get_all_exodus_times ( const std::string & filename )

Open an exodus file and get a vector of all stored time stamps.

Parameters

filename Fully qualified exodus file name

Returns: List (python tuple) of time stamps in the exodus file

◆ get_all_exodus_variable_names()

std::vector< std::string > get_all_exodus_variable_names	(	const std::string &	filename,
		const std::string &	variable_type
	)

Open an exodus file and get a list of all stored variable names.

Parameters

filename	Fully qualified exodus file name
type	Variable type - 'g', 'n', or 'e'

Returns: List (python tuple) of variable names in the exodus file

◆ get_all_geometric_owners()

std::vector< std::string > get_all_geometric_owners	(	std::string	mesh_entity_type,
		std::string	mesh_entity_list
	)

Get a list of geometric owners given a list of mesh entities. returns geometric owners of entity as well as all of its child mesh entities.

std::vector<std::string> owner_list;

owner_list = CubitInterface::get_all_geometric_owners ("quad" , id_list);

CubitInterface::get_all_geometric_owners

std::vector< std::string > get_all_geometric_owners(std::string mesh_entity_type, std::string mesh_entity_list)

Get a list of geometric owners given a list of mesh entities. returns geometric owners of entity as w...

owner_list = cubit.get_all_geometric_owners("quad" , id_list)

Parameters

mesh_entity_type	The type of mesh entity. Works for 'quad, 'face', 'tri', 'hex', 'tet', 'edge', 'node'
mesh_entity_list	A string containing space delimited ids, Cubit command form (i.e. 'all', '1 to 8', '1 2 3', etc)

Returns: A list (python tuple) of geometry owners in the form of 'surface x', 'curve y', etc.

◆ get_all_ids_from_name()

std::vector< int > get_all_ids_from_name	(	const std::string &	geo_type,
		const std::string &	name
	)

Get all ids of a geometry type with the prefix given by string.

std::vector<int> entity_ids = CubitInterface::get_all_ids_from_name ("volume" , "member_2" );

CubitInterface::get_all_ids_from_name

std::vector< int > get_all_ids_from_name(const std::string &geo_type, const std::string &name)

Get all ids of a geometry type with the prefix given by string.

entity_ids = cubit.get_all_ids_from_name("volume" , "member_2" )

Parameters

geo_type type of geometry entity (vertex, curve, surface, volume) name Prefix of entity name return vector of integers representing the entities that have the given name as a prefix

◆ get_aprepro_numeric_value()

double get_aprepro_numeric_value ( std::string variable_name )

get the value of the given aprepro variable

Returns: value as double on failure returns CUBIT_DBL_MAX

◆ get_aprepro_value()

bool get_aprepro_value	(	std::string	variable_name,
		int &	returned_variable_type,
		double &	returned_double_val,
		std::string &	returned_string_val
	)

Get the value of an aprepro variable.

Parameters

var_name	aprepro variable name
var_type	return 0, 1 or 3 where 0=undefined 1=double/int 2=string
dval	return integer or double value if var_type=1
sval	return string if var_type=2

Returns: 1 = success, 0 = failure (no such variable name)

◆ get_aprepro_value_as_string()

std::string get_aprepro_value_as_string ( std::string variable_name )

Gets the string value of an aprepro variable.

Parameters

var_name aprepro variable name

Returns: The string value of the aprepro variable name

◆ get_aprepro_vars()

std::vector< std::string > get_aprepro_vars ( )

Gets the current aprepro variable names.

Returns: A list (python tuple) of the current aprepro variable names

◆ get_arc_length()

double get_arc_length ( int curve_id )

Get the arc length of a specified curve.

Parameters

curve_id ID of the curve

Returns: Arc length of the curve

◆ get_assembly_children()

std::vector< AssemblyItem > get_assembly_children ( int assembly_id )

◆ get_assembly_classification_category()

std::string get_assembly_classification_category ( )

Get Classification Category for metadata.

Returns: Requested data

◆ get_assembly_classification_level()

std::string get_assembly_classification_level ( )

Get Classification Level for metadata.

Returns: Requested data

◆ get_assembly_description()

std::string get_assembly_description ( int assembly_id )

Get the stored description of an assembly node.

Parameters

assembly_id Id that identifies the assembly node

Returns: Description of the assembly node

◆ get_assembly_file_format()

std::string get_assembly_file_format ( int assembly_id )

Get the stored file format of an assembly node.

Parameters

assembly_id Id that identifies the assembly node

Returns: File Format of the assembly node

◆ get_assembly_instance()

int get_assembly_instance ( int assembly_id )

Get the stored instance number of an assembly node.

Parameters

assembly_id Id that identifies the assembly node

Returns: Instance of the assembly node

◆ get_assembly_items()

std::vector< AssemblyItem > get_assembly_items ( )

◆ get_assembly_level()

int get_assembly_level ( int assembly_id )

Get the stored level of an assembly node.

Parameters

assembly_id Id that identifies the assembly node

Returns: Level of the assembly node - Level == 0 == Root

◆ get_assembly_material_description()

std::string get_assembly_material_description ( int assembly_id )

Get the stored material description of an assembly part.

Parameters

assembly_id Id that identifies the assembly node

Returns: Material Description of the assembly part

◆ get_assembly_material_specification()

std::string get_assembly_material_specification ( int assembly_id )

Get the stored material specification of an assembly part.

Parameters

assembly_id Id that identifies the assembly node

Returns: Material Specification of the assembly part

◆ get_assembly_metadata()

std::string get_assembly_metadata	(	int	volume_id,
		int	data_type
	)

Get metadata for a specified volume id.

Parameters

volume_id	ID of the volume
data_type	Magic number representing the type of assembly information to return. 1 = Part Number, 2 = Description, 3 = Material Description 4 = Material Specification, 5 = Assembly Path, 6 = Original File

Returns: Requested data

◆ get_assembly_name()

std::string get_assembly_name ( int assembly_id )

Get the stored name of an assembly node.

Parameters

assembly_id Id that identifies the assembly node

Returns: Name of the assembly node

◆ get_assembly_path()

std::string get_assembly_path ( int assembly_id )

Get the stored path of an assembly node.

Parameters

assembly_id Id that identifies the assembly node

Returns: Path of the assembly node

◆ get_assembly_type()

std::string get_assembly_type ( int assembly_id )

Get the stored type of an assembly node.

Parameters

assembly_id Id that identifies the assembly node

Returns: Type of the assembly node – 'part' or 'assembly'

◆ get_assembly_units()

std::string get_assembly_units ( int assembly_id )

Get the stored units measure of an assembly node.

Parameters

assembly_id Id that identifies the assembly node

Returns: Units of the assembly node

◆ get_assembly_weapons_category()

std::string get_assembly_weapons_category ( )

Get Weapons Category for metadata.

Returns: Requested data

◆ get_auto_size()

double get_auto_size	(	const std::string &	geometry_type,
		std::vector< int >	entity_id_list,
		double	size
	)

Get the auto size for a given set of enitities. Note, this does not actually set the interval size on the volumes. It simply returns the size that would be set if an 'size auto factor n' command were issued.

Parameters

entity_type	Specifies the geometry type of the entity
enitty_id_list	List (vector) of entity ids
size	The auto factor for the AutoSizeTool

Returns: The interval size from the AutoSizeTool

◆ get_bad_geometry()

void get_bad_geometry	(	std::vector< int >	target_volume_ids,
		std::vector< int > &	returned_body_list,
		std::vector< int > &	returned_volume_list,
		std::vector< int > &	returned_surface_list,
		std::vector< int > &	returned_curve_list
	)

This function only works from C++ Get the list of bad geometry for a list of volumes

Bad geometry can be any number of problems associated with poorly defined ACIS geometry.

Parameters

target_volume_ids	List of volume ids to examine.
body_list	User specified list where ids of bad bodies will be returned
volume_list	User specified list where ids of bad volumes will be returned
surface_list	User specified list where ids of bad surfaces will be returned
curve_list	User specified list where ids of bad curves will be returned

◆ get_bc_id_list()

std::vector< int > get_bc_id_list ( CI_BCTypes bc_type_enum )

Get a list of all bcs of a specified type.

Parameters

bc_type_in as an enum defined by CI_BCTypes. 1-9 is FEA, 10-30 is CFD

Returns: List (python tuple) of all active bc ids

◆ get_bc_name()

std::string get_bc_name	(	CI_BCTypes	bc_type_enum,
		int	bc_id
	)

Get the name for the specified bc.

Parameters

bc_type_in	type of bc, as defined by enum CI_BCTypes. 1-9 is FEA, 10-30 is CFD
bc_id	ID of the desired bc.

Returns: The bc name

◆ get_bc_temperature()

double get_bc_temperature	(	CI_BCTypes	bc_type_enum,
		int	entity_id,
		CI_BCEntityTypes	temp_type_enum
	)

Get the temperature. Valid for convection, temperature.

Parameters

bc_type	enum of CI_BCTypes. temperature = 4, convection = 7
entity_id	Id of the BC convection
temp_type	enum of CI_BCEntityTypes (normal, shell top, shell bottom). For convection, 2 if on solid, 7 if on top, 8 if on bottom. For temperature, 3 if on solid, 7 for top, 8 for bottom, 9 for gradient, 10 for middle

Returns: The value of the specified BC temperature

◆ get_blend_chain_collections()

std::vector< std::vector< int > > get_blend_chain_collections	(	const std::vector< int > &	volume_list,
		double	radius_threshold,
		std::vector< double > &	return_radii
	)

Returns the collections of surfaces that comprise blend chains in the specified volumes. Filter by radius threshold.

Parameters

volume_list	List of volumes to query
radius_threshold	resturn only blend chains less than radius_threshold
return_radii	return a vector of blend chain radii corresponding to the return blend chains lists

Returns: A list of lists of surface id's grouped by their individual blend chain

◆ get_blend_chains()

std::vector< std::vector< int > > get_blend_chains ( int surface_id )

Returns the blend chains for a surface.

Parameters

surface_id surface to retrieve the blend chains from

Returns: A list of lists of id's in each blend chain. Note: If using python, lists will be python tuples.

◆ get_blend_surfaces()

std::vector< int > get_blend_surfaces ( std::vector< int > target_volume_ids )

Get the list of blend surfaces for a list of volumes.

Parameters

target_volume_ids List of volume ids to examine.

Returns: List (python tuple) of blend surface ids

◆ get_block_attribute_count()

int get_block_attribute_count ( int block_id )

Get the number of attributes in a block.

Parameters

block_id The block id

Returns: Number of attributes in the block

◆ get_block_attribute_name()

std::string get_block_attribute_name	(	int	block_id,
		int	attribute_index
	)

Get a specific block attribute name.

Parameters

block_id	The block id
index	The index of the attribute

Returns: Attribute name as a std::string

◆ get_block_attribute_value()

double get_block_attribute_value	(	int	block_id,
		int	attribute_index
	)

Get a specific block attribute value.

Parameters

block_id	The block id
index	The index of the attribute

Returns: List of attributes

◆ get_block_children()

void get_block_children	(	int	block_id,
		std::vector< int > &	returned_group_list,
		std::vector< int > &	returned_node_list,
		std::vector< int > &	returned_sphere_list,
		std::vector< int > &	returned_edge_list,
		std::vector< int > &	returned_tri_list,
		std::vector< int > &	returned_face_list,
		std::vector< int > &	returned_pyramid_list,
		std::vector< int > &	returned_tet_list,
		std::vector< int > &	returned_hex_list,
		std::vector< int > &	returned_wedge_list,
		std::vector< int > &	returned_volume_list,
		std::vector< int > &	returned_surface_list,
		std::vector< int > &	returned_curve_list,
		std::vector< int > &	returned_vertex_list
	)

Get lists of any and all possible children of a block.

A block can contain a variety of entity types. This routine will return all contents of a specified block.

Parameters

block_id	ID of block to examine
group_list	User specified list where groups associated with this block are returned
node_list	User specified list where nodes associated with this block are returned
edge_list	User specified list where edges associated with this block are returned
tri_list	User specified list where tris associated with this block are returned
face_list	User specified list where faces associated with this block are returned
pyramid_list	User specified list where pyramids associated with this block are returned
tet_list	User specified list where tets associated with this block are returned
hex_list	User specified list where hexes associated with this block are returned
volume_list	User specified list where volumes associated with this block are returned
surface_list	User specified list where surfaces associated with this block are returned
curve_list	User specified list where curves associated with this block are returned
vertex_list	User specified list where vertices associated with this block are returned

◆ get_block_count()

int get_block_count ( )

Get the current number of blocks.

Returns: The number of blocks in the current model, if any

◆ get_block_curves()

std::vector< int > get_block_curves ( int block_id )

Get a list of curve associated with a specific block.

Parameters

block_id User specified id of the desired block

Returns: A list (python tuple) of curve ids contained in the block

◆ get_block_edges()

std::vector< int > get_block_edges ( int block_id )

Get a list of edges associated with a specific block.

Parameters

block_id User specified id of the desired block

Returns: A list (python tuple) of edge ids contained in the block

◆ get_block_element_attribute_count()

int get_block_element_attribute_count ( int block_id )

Get the number of attributes in a block element.

Parameters

block_id The block id

Returns: Number of attributes in the block element

◆ get_block_element_attribute_names()

std::vector< std::string > get_block_element_attribute_names ( int block_id )

Get a specific block element attribute name.

Parameters

block_id	The block id
index	The index of the attribute

Returns: Attribute name as a std::string

◆ get_block_element_type()

std::string get_block_element_type ( int block_id )

Get the element type of a block.

Parameters

block_id The block id

Returns: Element type

◆ get_block_elements_and_nodes()

bool get_block_elements_and_nodes	(	int	block_id,
		std::vector< int > &	returned_node_list,
		std::vector< int > &	returned_sphere_list,
		std::vector< int > &	returned_edge_list,
		std::vector< int > &	returned_tri_list,
		std::vector< int > &	returned_face_list,
		std::vector< int > &	returned_pyramid_list,
		std::vector< int > &	returned_wedge_list,
		std::vector< int > &	returned_tet_list,
		std::vector< int > &	returned_hex_list
	)

Get lists of the nodes and different element types associated with this block. This function is recursive, meaning that if the block was created pointing to a piece of geometry, it will traverse down and get the mesh entities associated to that geometry.

Parameters

block_id User specified id of the desired block A list (python tuple) of node ids contained in the block A list (python tuple) of edge ids contained in the block A list (python tuple) of tri ids contained in the block A list (python tuple) of quad ids contained in the block A list (python tuple) of pyramid ids contained in the block A list (python tuple) of wedge ids contained in the block A list (python tuple) of tet ids contained in the block A list (python tuple) of hex ids contained in the block

Returns: true for success, otherwise false

◆ get_block_faces()

std::vector< int > get_block_faces ( int block_id )

Get a list of faces associated with a specific block.

Parameters

block_id User specified id of the desired block

Returns: A list (python tuple) of face ids contained in the block

◆ get_block_hexes()

std::vector< int > get_block_hexes ( int block_id )

Get a list of hexes associated with a specific block.

Parameters

block_id User specified id of the desired block

Returns: A list (python tuple) of hex ids contained in the block

◆ get_block_id()

int get_block_id	(	std::string	entity_type,
		int	entity_id
	)

Get the associated block id for a specific curve, surface, or volume.

int block_id = CubitInterface::get_block_id ("surface" , 33);

CubitInterface::get_block_id

int get_block_id(std::string entity_type, int entity_id)

Get the associated block id for a specific curve, surface, or volume.

block_id = cubit.get_block_id("surface" , 33)

Parameters

entity_type	Type of entity
entity_id	Id of entity in question

Returns: Block id associated with this entity or zero (0) if none

◆ get_block_id_list()

std::vector< int > get_block_id_list ( )

Get a list of all blocks.

Returns: List (python tuple) of all active block ids

◆ get_block_ids()

std::vector< int > get_block_ids ( const std::string & mesh_geometry_file_name )

Get list of block ids from a mesh geometry file.

Parameters

mesh_geom_file_name Fully qualified name of a mesh geometry file

Returns: List of block ids in the mesh geometry file

◆ get_block_material()

int get_block_material ( int block_id )

Get the id of the material assigned to the specified block.

Returns: The material id. If no material has been assigned to the block, returns 0.

◆ get_block_nodes()

std::vector< int > get_block_nodes ( int block_id )

Get a list of nodes associated with a specific block.

Parameters

block_id User specified id of the desired block

Returns: A list (python tuple) of node ids contained in the block

◆ get_block_pyramids()

std::vector< int > get_block_pyramids ( int block_id )

Get a list of pyramids associated with a specific block.

Parameters

block_id User specified id of the desired block

Returns: A list (python tuple) of pyramid ids contained in the block

◆ get_block_surfaces()

std::vector< int > get_block_surfaces ( int block_id )

Get a list of surface associated with a specific block.

Parameters

block_id User specified id of the desired block

Returns: A list (python tuple) of surface ids contained in the block

◆ get_block_tets()

std::vector< int > get_block_tets ( int block_id )

Get a list of tets associated with a specific block.

Parameters

block_id User specified id of the desired block

Returns: A list (python tuple) of tet ids contained in the block

◆ get_block_tris()

std::vector< int > get_block_tris ( int block_id )

Get a list of tris associated with a specific block.

Parameters

block_id User specified id of the desired block

Returns: A list (python tuple) of tri ids contained in the block

◆ get_block_vertices()

std::vector< int > get_block_vertices ( int block_id )

Get a list of vertices associated with a specific block.

Parameters

block_id User specified id of the desired block

Returns: A list (python tuple) of vertex ids contained in the block

◆ get_block_volumes()

std::vector< int > get_block_volumes ( int block_id )

Get a list of volume ids associated with a specific block.

Parameters

block_id User specified id of the desired block

Returns: A list (python tuple) of volume ids contained in the block

◆ get_block_wedges()

std::vector< int > get_block_wedges ( int block_id )

Get a list of wedges associated with a specific block.

Parameters

block_id User specified id of the desired block

Returns: A list (python tuple) of wedges ids contained in the block

◆ get_blocks_with_materials()

std::vector< std::vector< int > > get_blocks_with_materials ( )

Get the block ids and ids of the respective materials assigned to each block.

Returns: List of tuples ([block_1_id, material_1_id], [block_2_id, material_2_id], ...) for each block, whether or not it has a material. If no material has been assigned to the block, returns 0.

◆ get_blunt_tangency_default_depth()

double get_blunt_tangency_default_depth	(	int	vert_id,
		double	angle,
		bool	add_material
	)

get default depth value for blunt tangency operation

Returns: depth

◆ get_body_count()

int get_body_count ( )

Get the current number of bodies.

Returns: The number of bodies in the current model, if any

◆ get_bolt_axis()

std::vector< double > get_bolt_axis ( int vol_id )

get axis vector of bolt

Parameters

vol_id volume ID. Should represent bolt geometry

Returns: normalized axis vector of bolt ([0,0,0] if invalid volume or couldn't determine)

◆ get_bolt_diameter()

double get_bolt_diameter ( int vol_id )

get diameter of bolt shank

Parameters

vol_id volume ID. Should represent bolt geometry

Returns: diameter of bolt (0 if invalid volume or couldn't determine)

◆ get_bool_sculpt_default()

bool get_bool_sculpt_default ( const char * variable )

◆ get_boundary_layer_algorithm()

std::string get_boundary_layer_algorithm ( int boundary_layer_id )

◆ get_boundary_layer_aspect_first_parameters()

bool get_boundary_layer_aspect_first_parameters	(	int	boundary_layer_id,
		double &	returned_first_row_aspect,
		double &	returned_growth_factor,
		int &	returned_number_rows
	)

◆ get_boundary_layer_aspect_last_parameters()

bool get_boundary_layer_aspect_last_parameters	(	int	boundary_layer_id,
		double &	returned_first_row_height,
		int &	returned_number_rows,
		double &	returned_last_row_aspect
	)

◆ get_boundary_layer_continuity()

bool get_boundary_layer_continuity ( int boundary_layer_id )

◆ get_boundary_layer_curve_intersection_types()

bool get_boundary_layer_curve_intersection_types	(	std::vector< int > &	returned_curve_list,
		std::vector< int > &	returned_volume_list,
		std::vector< std::string > &	returned_types
	)

◆ get_boundary_layer_curve_surface_pairs()

bool get_boundary_layer_curve_surface_pairs	(	int	boundary_layer_id,
		std::vector< int > &	returned_curve_list,
		std::vector< int > &	returned_surface_list
	)

◆ get_boundary_layer_id_list()

std::vector< int > get_boundary_layer_id_list ( )

◆ get_boundary_layer_surface_volume_pairs()

bool get_boundary_layer_surface_volume_pairs	(	int	boundary_layer_id,
		std::vector< int > &	returned_surface_list,
		std::vector< int > &	returned_volume_list
	)

◆ get_boundary_layer_uniform_parameters()

bool get_boundary_layer_uniform_parameters	(	int	boundary_layer_id,
		double &	returned_first_row_height,
		double &	returned_growth_factor,
		int &	returned_number_rows
	)

◆ get_boundary_layer_vertex_intersection_types()

bool get_boundary_layer_vertex_intersection_types	(	std::vector< int > &	returned_vertex_list,
		std::vector< int > &	returned_surface_list,
		std::vector< std::string > &	returned_types
	)

◆ get_boundary_layers_by_base()

std::vector< int > get_boundary_layers_by_base	(	const std::string &	base_type,
		int	base_id
	)

◆ get_boundary_layers_by_pair()

std::vector< int > get_boundary_layers_by_pair	(	const std::string &	base_type,
		int	base_id,
		int	parent_id
	)

◆ get_bounding_box()

std::array< double, 10 > get_bounding_box	(	const std::string &	geometry_type,
		int	entity_id
	)

Get the bounding box for a specified entity.

std::array<double, 10> vector_list;

vector_list = CubitInterface::get_bounding_box ("surface" , 22);

CubitInterface::get_bounding_box

std::array< double, 10 > get_bounding_box(const std::string &geometry_type, int entity_id)

Get the bounding box for a specified entity.

vector_list = cubit.get_bounding_box("surface" , 22)

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

Returns: A vector (python tuple) of coordinates describing the entity's bounding box. Ten (10) values will be: [0] = minx [1] = maxx [2] = boxx range [3] = miny [4] = maxy [5] = boxy range [6] = minz [7] = maxz [8] = boxz range [9] = box diagonal length

◆ get_build_number()

std::string get_build_number ( )

Get the Cubit build number.

Returns: A string containing the current Cubit build number

◆ get_cavity_surfaces()

std::vector< int > get_cavity_surfaces ( int surface_id )

Returns the adjacent surfaces in a cavity for a surface.

Parameters

surface_id that is part of the cavity

Returns: A list of surface id's in the cavity (including surface_id).

◆ get_center_point()

std::array< double, 3 > get_center_point	(	const std::string &	entity_type,
		int	entity_id
	)

Get the center point of a specified entity.

std::array<double,3> center_point;

center_point = CubitInterface::get_center_point ("surface" , 22);

CubitInterface::get_center_point

std::array< double, 3 > get_center_point(const std::string &entity_type, int entity_id)

Get the center point of a specified entity.

center_point = cubit.get_center_point("surface" , 22)

Parameters

entity_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

Returns: Vector (python tuple) of doubles representing x y z

◆ get_cfd_type()

int get_cfd_type ( int entity_id )

Get the cfd subtype for a specified cfd BC.

Parameters

entity_id ID of the cfd BC

Returns: Integer corresponding to the type of cfd, as defined by CI_BCTypes

◆ get_chamfer_chain_collections()

std::vector< std::vector< int > > get_chamfer_chain_collections	(	const std::vector< int > &	volume_list,
		double	thickness_threshold,
		std::vector< double > &	return_thicknesses
	)

Returns the collections of surfaces that comprise chamfers in the specified volumes. Filter by thickness of chamfer.

Parameters

volume_list	List of volumes to query
radius_threshold	resturn only chamfer chains less than thickness_threshold
return_radii	return a vector of chamfer chain radii corresponding to the return chamfer chains lists

Returns: A list of lists of surface id's grouped by their individual chamfer_chain

◆ get_chamfer_chains()

std::vector< std::vector< int > > get_chamfer_chains ( int surface_id )

Returns the chamfer chains for a surface.

Parameters

surface_id surface to retrieve the chamfer chains from

Returns: A list of lists of id's in each chamfer chain. Note: If using python, lists will be python tuples.

◆ get_chamfer_surfaces()

std::vector< std::vector< double > > get_chamfer_surfaces	(	std::vector< int >	target_volume_ids,
		double	thickness_threshold
	)

Get the list of chamfer surfaces for a list of volumes.

Parameters

target_volume_ids	List of volume ids to examine.
thickness_threshold	max thickness criteria for chamfer

Returns: List (python tuple) of chamfer surface ids (as doubles) and their thicknesses

◆ get_close_loop_thickness()

double get_close_loop_thickness ( int surface_id )

Get the thickness of a close loop surface.

Parameters

surafce id

Returns: List (python tuple) of close loop (surface) ids

◆ get_close_loops()

std::vector< int > get_close_loops	(	std::vector< int >	target_volume_ids,
		double	mesh_size
	)

Get the list of close loops (surfaces) for a list of volumes.

'Small' or 'Close' is a function of the mesh_size passed into the routine. The mesh_size parameter will act as the threshold for determining what 'small' is. A small entity is one that has an edge length smaller than mesh_size.

Parameters

target_volume_ids	List of volume ids to examine.
mesh_size	Indicate the mesh size used as the threshold

Returns: List (python tuple) of close loop (surface) ids

◆ get_close_loops_with_thickness()

std::vector< std::vector< double > > get_close_loops_with_thickness	(	std::vector< int >	target_volume_ids,
		double	mesh_size,
		int	genus
	)

Get the list of close loops (surfaces) for a list of volumes also return the corresponding minimum distances for each surface.

'Small' or 'Close' is a function of the mesh_size passed into the routine. The mesh_size parameter will act as the threshold for determining what 'small' is. A small entity is one that has an edge length smaller than mesh_size.

Parameters

target_volume_ids	List of volume ids to examine.
mesh_size	Indicate the mesh size used as the threshold
genus	Indicate the genus of the surfaces requested. Genus is defined as the number of loops on the surface minus 1. To return any genus surface in the volume(s), use genus < 0

Returns: List (python tuple) of close loop (surface) ids

◆ get_close_vertex_curve_pairs()

std::vector< int > get_close_vertex_curve_pairs	(	std::vector< int >	target_volume_ids,
		double	high_tolerance
	)

Get the list of close vertex-curve pairs (python callable)

Parameters

target_volume_list List of volumes ids to examine.

Returns: Paired list (python tuple) of vertex and curve ids considered coincident

◆ get_closed_narrow_surfaces()

std::vector< int > get_closed_narrow_surfaces	(	std::vector< int >	target_ids,
		double	narrow_size
	)

Get the list of closed, narrow surfaces from a list of volumes.

Parameters

target_volume_ids	List of volume ids to examine.
narrow_size	Indicate the narrow size threshold

Returns: List (python tuple) of close, narrow surface ids

◆ get_closest_node()

int get_closest_node	(	double	x_coordinate,
		double	y_coordinate,
		double	z_coordinate
	)

Get the node closest to the given coordinates.

Parameters

x	coordinate
y	coordinate
z	coordinate

Returns: id of closest node, 0 if none found

◆ get_closest_vertex_curve_pairs()

void get_closest_vertex_curve_pairs	(	std::vector< int >	target_ids,
		int &	returned_number_to_return,
		std::vector< int > &	returned_vertex_ids,
		std::vector< int > &	returned_curve_ids,
		std::vector< double > &	returned_distances
	)

Find the n closest vertex pairs in the model.

Given a list of volumes find the n closest vertex curve pairs. The checks will be done on a surface by surface basis so that only curve-vertex pairs within a given surface will be returned. This function is for finding the smallest features within the surfaces of the model.

Parameters

target_ids	List of volumes ids to examine.
num_to_return	Number of vertex curve pairs to return.
vert_ids	Ids of returned vertices.
curve_ids	Ids of returned curves.
distances	Vertex-curve pair distances.

◆ get_coincident_entity_pairs()

void get_coincident_entity_pairs	(	std::vector< int >	target_volume_ids,
		std::vector< int > &	returned_v_v_vertex_list,
		std::vector< int > &	returned_v_c_vertex_list,
		std::vector< int > &	returned_v_c_curve_list,
		std::vector< int > &	returned_v_s_vertex_list,
		std::vector< int > &	returned_v_s_surf_list,
		std::vector< double > &	returned_vertex_distance_list,
		std::vector< double > &	returned_curve_distance_list,
		std::vector< double > &	returned_surf_distance_list,
		double	low_value,
		double	high_value,
		bool	do_vertex_vertex = `true`,
		bool	do_vertex_curve = `true`,
		bool	do_vertex_surf = `true`,
		bool	filter_same_volume_cases = `false`
	)

Get the list of coincident vertex-vertex, vertex-curve, and vertex-surface pairs and distances from a list of volumes.

Given a list of volumes get lists of coincident vertex-vertex, vertex-curve, and vertex-surface pairs and their distances based on the passed-in thresholds. The returned lists will be exactly double the size of the distance lists. For each distance, 2 entities will be associated at the same relative place in the list.

Parameters

target_volume_ids	List of volumes ids to examine.
do_vertex_vertex	Parameter specifying whether to do vertex-vertex check.
do_vertex_curve	Parameter specifying whether to do vertex-curve check.
do_vertex_surf	Parameter specifying whether to do vertex-surface check.
v_v_vertex_list	User specified list where the ids of coincident vertex pairs are returned
v_c_vertex_list	User specified list where the ids of the vertices of coincident vertex-curve pairs are returned
v_c_curve_list	User specified list where the ids of the curves of coincident vertex-curve pairs are returned
v_s_vertex_list	User specified list where the ids of the vertices of coincident vertex-surface pairs are returned
v_s_surf_list	User specified list where the ids of the surfaces of coincident vertex-surface pairs are returned
vertex_distance_list	User specified list where the vertex-vertex distance values will be returned
curve_distance_list	User specified list where the vertex-curve distance values will be returned
surf_distance_list	User specified list where the vertex-surface distance values will be returned
low_value	User specified low threshold value
hi_value	User specified high threshold value
filter_same_volume_cases	Parameter specifying whether to weed out entity pairs that are in the same volume.

◆ get_coincident_vertex_curve_pairs()

void get_coincident_vertex_curve_pairs	(	std::vector< int >	target_volume_ids,
		std::vector< int > &	returned_vertex_list,
		std::vector< int > &	returned_curve_list,
		std::vector< double > &	returned_distance_list,
		double	low_value,
		double	threshold_value,
		bool	filter_same_volume_cases = `false`
	)

Get the list of coincident vertex/curve pairs and distances from a list of volumes.

Given a list of volumes get a list of coincident vertex/curve pairs and their distances based on the current merge tolerance value and a threshold value. The returned lists will be of equal length and matched by order.

Parameters

target_volume_ids	List of vertices ids to examine.
vertex_list	User specified list for the ids of coincident vertices
curve_list	User specified list for the ids of coincident curves
distance_list	User specified list where the distance values will be returned
threshold_value	User specified threshold value

◆ get_coincident_vertex_surface_pairs()

void get_coincident_vertex_surface_pairs	(	std::vector< int >	target_volume_ids,
		std::vector< int > &	returned_vertex_list,
		std::vector< int > &	returned_surface_list,
		std::vector< double > &	returned_distance_list,
		double	low_value,
		double	threshold_value,
		bool	filter_same_volume_cases = `false`
	)

Get the list of coincident vertex/surface pairs and distances from a list of volumes.

Given a list of volumes get a list of coincident vertex/pairs pairs and their distances based on the current merge tolerance value and a threshold value. The returned lists will be of equal length and matched by order.

Parameters

target_volume_ids	List of vertices ids to examine.
vertex_list	User specified list for the ids of coincident vertices
surface_list	User specified list for the ids of coincident surfaces
distance_list	User specified list where the distance values will be returned
threshold_value	User specified threshold value

◆ get_coincident_vertex_vertex_pairs()

void get_coincident_vertex_vertex_pairs	(	std::vector< int >	target_volume_ids,
		std::vector< int > &	returned_vertex_pair_list,
		std::vector< double > &	returned_distance_list,
		double	low_value,
		double	threshold_value,
		bool	filter_same_volume_cases = `false`
	)

Get the list of coincident vertex pairs and distances from a list of volumes.

Given a list of volumes get a list of coincident vertex pairs and their distances based on the current merge tolerance value and a threshold. The returned vertex list will be exactly double the size of the distance list. For each distance, 2 vertices will be associated at the same relative place in the list.

Parameters

target_volume_ids	List of volumes ids to examine.
vertex_pair_list	User specified list where the ids of coincident vertex pairs be returned
distance_list	User specified list where the distance values will be returned
threshold_value	User specified threshold value

◆ get_coincident_vertices()

std::vector< int > get_coincident_vertices	(	std::vector< int >	target_volume_ids,
		double	high_tolerance
	)

Get the list of coincident vertex pairs

Parameters

target_volume_list List of volumes ids to examine.

Returns: Paired list (python tuple) of vertex ids considered coincident

◆ get_command_from_history()

std::string get_command_from_history ( int command_number )

Get a specific command from Cubit's command history buffer.

Returns: A string which is the command at the given index

◆ get_common_curve_id()

int get_common_curve_id	(	int	surface_1_id,
		int	surface_2_id
	)

Given 2 surfaces, get the common curve id.

Parameters

surface_1_id	The id of one of the surfaces
surface_2_id	The id of the other surface

Returns: The id of the curve common to the two surfaces

◆ get_common_vertex_id()

int get_common_vertex_id	(	int	curve_1_id,
		int	curve_2_id
	)

Given 2 curves, get the common vertex id.

Parameters

curve_1_id	The id of one of the curves
curve_2_id	The id of the other curves

Returns: The id of the vertex common to the two curves, 0 if there is none

◆ get_cone_surfaces()

std::vector< int > get_cone_surfaces ( std::vector< int > target_volume_ids )

return a list of surfaces that are cones defined by a conic surface and a hard point

Parameters

target_volume_ids List of volume ids to examine.

◆ get_connectivity()

std::vector< int > get_connectivity	(	const std::string &	entity_type,
		int	entity_id
	)

Get the list of node ids contained within a mesh entity.

std::vector<int> node_id_list;

node_id_list = CubitInterface::get_connectivity ("hex" , 221);

CubitInterface::get_connectivity

std::vector< int > get_connectivity(const std::string &entity_type, int entity_id)

Get the list of node ids contained within a mesh entity.

node_id_list = cubit.get_connectivity("hex" , 221)

Parameters

entity_type	The mesh element type
entity_id	The mesh element id

Returns: List (python tuple) of node ids

◆ get_constraint_dependent_entity_point()

std::string get_constraint_dependent_entity_point ( int constraint_id )

Get the dependent entity of a specified constraint.

Parameters

constraint_id ID of the constraint

Returns: A std::string indicating the dependent entity

◆ get_constraint_reference_point()

std::string get_constraint_reference_point ( int constraint_id )

Get the reference point of a specified constraint.

Parameters

constraint_id ID of the constraint

Returns: A std::string indicating the reference point

◆ get_constraint_type()

std::string get_constraint_type ( int constraint_id )

Get the type of a specified constraint.

Parameters

constraint_id ID of the constraint

Returns: A std::string indicating the type – Kinematic, Distributing, Rigidbody

◆ get_contact_pair_exterior_state()

bool get_contact_pair_exterior_state ( int entity_id )

Get the contact pair's exterior state.

Parameters

entity_id Id of the contact pair

Returns: The exterior state of the contact pair

◆ get_contact_pair_friction_value()

double get_contact_pair_friction_value ( int entity_id )

Get the contact pair's friction value.

Parameters

entity_id Id of the contact pair

Returns: The friction value of the contact pair

◆ get_contact_pair_general_state()

bool get_contact_pair_general_state ( int entity_id )

Get the contact pair's general state.

Parameters

entity_id Id of the contact pair

Returns: The general state of the contact pair

◆ get_contact_pair_tied_state()

bool get_contact_pair_tied_state ( int entity_id )

Get the contact pair's tied state.

Parameters

entity_id Id of the contact pair

Returns: The tied state of the contact pair

◆ get_contact_pair_tol_lower_value()

double get_contact_pair_tol_lower_value ( int entity_id )

Get the contact pair's lower bound tolerance value.

Parameters

entity_id Id of the contact pair

Returns: The tolerance value of the contact pair

◆ get_contact_pair_tolerance_value()

double get_contact_pair_tolerance_value ( int entity_id )

Get the contact pair's upper bound tolerance value.

Parameters

entity_id Id of the contact pair

Returns: The tolerance value of the contact pair

◆ get_continuous_curves()

std::vector< int > get_continuous_curves	(	int	curve_id,
		double	angle_tol
	)

Returns the adjacent curves that are continuous (angle is 180 degrees +- angle_tol)

Parameters

curve_id	that is part of the cavity
angle_tol	angle tolerance for continuity

Returns: A list of curve id's in the continuous set (including curve_id).

◆ get_continuous_surfaces()

std::vector< int > get_continuous_surfaces	(	int	surface_id,
		double	angle_tol
	)

Returns the adjacent surfaces that are continuous (exterior angle is 180 degrees +- angle_tol)

Parameters

surface_id	that is part of the cavity
angle_tol	angle tolerance for continuity

Returns: A list of surface id's in the continuous set (including surface_id).

◆ get_convection_coefficient()

double get_convection_coefficient	(	int	entity_id,
		CI_BCEntityTypes	bc_type_enum
	)

Get the convection coefficient.

Parameters

entity_id	Id of the BC convection
cc_type	enum of CI_BCEntityTypes (1-normal, 5-shell top, 6-shell bottom)

Returns: The value of the convection coefficient

◆ get_coordinate_systems_id_list()

std::vector< int > get_coordinate_systems_id_list ( )

get a list of coordinate system ids

Returns: List (python tuple) of ids

◆ get_copy_block_on_geometry_copy_setting()

std::string get_copy_block_on_geometry_copy_setting ( )

Get the copy nodeset on geometry copy setting.

Returns: copy nodeset setting

◆ get_copy_nodeset_on_geometry_copy_setting()

std::string get_copy_nodeset_on_geometry_copy_setting ( )

Get the copy nodeset on geometry copy setting.

Returns: copy nodeset setting

◆ get_copy_sideset_on_geometry_copy_setting()

std::string get_copy_sideset_on_geometry_copy_setting ( )

Get the copy nodeset on geometry copy setting.

Returns: copy nodeset setting

◆ get_cubit_digits_setting()

double get_cubit_digits_setting ( )

Get the Cubit digits setting.

Returns: A double containing the digits. -1 if no digits are set

◆ get_cubit_message_handler()

CubitMessageHandler * get_cubit_message_handler ( )

get the default message handler

◆ get_current_ids()

std::vector< int > get_current_ids ( const std::string & entity_type )

Get the current body ids.

Returns: The body IDs in the current model, if any

◆ get_current_journal_file()

std::string get_current_journal_file ( )

Gets the current journal file name.

Returns: The current journal file name.

◆ get_curve_bias_coarse_size()

double get_curve_bias_coarse_size ( int curve_id )

Get the bias coarse size of a curve

Parameters

curve_id Specifies the id of the curve

Returns: The bias coarse size of the curve.

◆ get_curve_bias_fine_size()

double get_curve_bias_fine_size ( int curve_id )

Get the bias fine size of a curve

Parameters

curve_id Specifies the id of the curve

Returns: The bias fine size of the curve.

◆ get_curve_bias_first_interval_fraction()

double get_curve_bias_first_interval_fraction ( int curve_id )

Get the bias first interval fraction of a curve

Parameters

curve_id Specifies the id of the curve

Returns: The bias first interval fraction of the curve.

◆ get_curve_bias_first_interval_length()

double get_curve_bias_first_interval_length ( int curve_id )

Get the bias first interval length of a curve

Parameters

curve_id Specifies the id of the curve

Returns: The bias first interval length of the curve.

◆ get_curve_bias_first_last_ratio1()

double get_curve_bias_first_last_ratio1 ( int curve_id )

Get the bias first/last ratio at start of a curve

Parameters

curve_id Specifies the id of the curve

Returns: The bias coarse size of the curve.

◆ get_curve_bias_first_last_ratio2()

double get_curve_bias_first_last_ratio2 ( int curve_id )

Get the bias first/last ratio at end of a curve

Parameters

curve_id Specifies the id of the curve

Returns: The bias coarse size of the curve.

◆ get_curve_bias_from_start()

bool get_curve_bias_from_start	(	int	curve_id,
		bool &	value
	)

Get whether the bias is from the start of a curve

Parameters

curve_id	Specifies the id of the curve
value	Returns whether the bias is from the start of the curve.

Returns: True/False A curve with the curve_id exists.

◆ get_curve_bias_from_start_set()

bool get_curve_bias_from_start_set ( int curve_id )

Get whether the bias from the start of a curve settings has been set

Parameters

curve_id	Specifies the id of the curve
value	Returns whether the bias from the start of the curve settings has been set.

Returns: True/False A curve with the curve_id exists.

◆ get_curve_bias_geometric_factor()

double get_curve_bias_geometric_factor ( int curve_id )

Get the first bias geometric factor of a curve

Parameters

curve_id Specifies the id of the curve

Returns: The bias geometric factor of the curve.

◆ get_curve_bias_geometric_factor2()

double get_curve_bias_geometric_factor2 ( int curve_id )

Get the second bias geometric factor of a curve

Parameters

curve_id Specifies the id of the curve

Returns: The bias geometric factor of the curve.

◆ get_curve_bias_last_first_ratio1()

double get_curve_bias_last_first_ratio1 ( int curve_id )

Get the bias last/first ratio at start of a curve

Parameters

curve_id Specifies the id of the curve

Returns: The bias coarse size of the curve.

◆ get_curve_bias_last_first_ratio2()

double get_curve_bias_last_first_ratio2 ( int curve_id )

Get the bias last/first ratio at end of a curve

Parameters

curve_id Specifies the id of the curve

Returns: The bias coarse size of the curve.

◆ get_curve_bias_start_vertex_id()

int get_curve_bias_start_vertex_id ( int curve_id )

Get the bias start vertex id of a curve

Parameters

curve_id Specifies the id of the curve

Returns: The bias start vertex id of a curve.

◆ get_curve_bias_type()

std::string get_curve_bias_type ( int curve_id )

Get the bias type of a curve

Parameters

curve_id Specifies the id of the curve

Returns: The bias type of the curve.

◆ get_curve_center()

std::array< double, 3 > get_curve_center ( int curve_id )

Get the center point of the arc.

Parameters

curve_id ID of the curve

Returns: x, y, z center point of the curve in a vector (python tuple)

◆ get_curve_count()

int get_curve_count ( )

Get the current number of curves.

Returns: The number of curves in the current model, if any

◆ get_curve_count_in_volumes()

int get_curve_count_in_volumes ( std::vector< int > target_volume_ids )

Get the current number of curves in the passed-in volumes.

Returns: The number of curves in the volumes

◆ get_curve_edges()

std::vector< int > get_curve_edges ( int curve_id )

get the list of any edge elements on a given curve

Parameters

curve_id User specified id of the desired curve

Returns: A list (python tuple) of the edge element ids on the curve

◆ get_curve_length()

double get_curve_length ( int curve_id )

Get the length of a specified curve.

Parameters

curve_id ID of the curve

Returns: Length of the curve

◆ get_curve_mesh_scheme_curvature()

double get_curve_mesh_scheme_curvature ( int curve_id )

Get the curvature mesh scheme value of a curve.

Parameters

curve_id Specifies the id of the curve

Returns: The curvature mesh scheme value of a curve.

◆ get_curve_mesh_scheme_pinpoint_locations()

std::vector< double > get_curve_mesh_scheme_pinpoint_locations ( int curve_id )

Get the pinpoint mesh scheme locations of a curve

Parameters

curve_id Specifies the id of the curve

Returns: The pinpoint mesh scheme locations for a curve.

◆ get_curve_mesh_scheme_stretch_values()

bool get_curve_mesh_scheme_stretch_values	(	int	curve_id,
		double &	first_size,
		double &	factor,
		double &	last_size,
		bool &	start,
		int &	vertex_id
	)

Get the stretch mesh scheme values of a curve

Parameters

curve_id	Specifies the id of the curve
first_size	Returns the first_size
factor	Returns the factor
last_size	Returns the last_size
start	Returns whether the scheme is from the start of the curve.
vertex_id	Returns the vertex id used for the start of the scheme.

Returns: True/False A curve with the curve_id exists.

◆ get_curve_nodes()

std::vector< int > get_curve_nodes ( int curve_id )

Get list of node ids owned by a curve.
Excludes nodes owned by bounding vertices.

int curv_id = 12;

vector<int> curve_nodes = CubitInterface::get_curve_nodes (curv_id);

CubitInterface::get_curve_nodes

std::vector< int > get_curve_nodes(int curve_id)

Get list of node ids owned by a curve. Excludes nodes owned by bounding vertices.

Parameters

curv_id id of curve

Returns: List (python tuple) of IDs of nodes owned by the curve

◆ get_curve_radius()

double get_curve_radius ( int curve_id )

Get the radius of a specified arc.

Parameters

curve_id ID of the curve

Returns: Radius of the curve

◆ get_curve_type()

std::string get_curve_type ( int curve_id )

Get the curve type for a specified curve.

Parameters

curve_id ID of the curve

Returns: Type of curve

◆ get_dbl_sculpt_default()

double get_dbl_sculpt_default ( const char * variable )

return sculpt default value

◆ get_default_auto_size()

double get_default_auto_size ( )

Get auto size needs for the current set of geometry.

◆ get_default_element_type()

std::string get_default_element_type ( )

Get the current default setting for the element type that will be used when meshing.

Returns

A string indicating the default mesh type:

"tri" indicates a tri/tet mesh default
"hex" indicates a quad/hex mesh default
"none" indicates no default has been assigned

◆ get_default_geometry_engine()

std::string get_default_geometry_engine ( )

Get the name of the default modeler engine.

std::string engine;

engine = CubitInterface::get_default_geometry_engine ();

CubitInterface::get_default_geometry_engine

std::string get_default_geometry_engine()

Get the name of the default modeler engine.

engine = cubit.get_default_geometry_engine()

Returns: The name of the default modeler engine in the form ACIS, CATIA, OCC, facet

◆ get_displacement_combine_type()

std::string get_displacement_combine_type ( int entity_id )

Get the displacement's combine type which is "Overwrite", "Average", "SmallestCombine", or "LargestCombine".

Parameters

entity_id Id of the displacement

Returns: The combine type for the given displacement

◆ get_displacement_coord_system()

int get_displacement_coord_system ( int entity_id )

Get the displacement's coordinate system id.

Parameters

entity_id Id of the displacement

Returns: The Id of the displacement's coordinate system

◆ get_displacement_dof_signs()

const int * get_displacement_dof_signs ( int entity_id )

This function only available from C++ Get the displacement's dof signs

Parameters

entity_id Id of the displacement

Returns

◆ get_displacement_dof_values()

const double * get_displacement_dof_values ( int entity_id )

This function only available from C++ Get the displacement's dof values

Parameters

entity_id Id of the displacement

Returns

◆ get_distance_between()

double get_distance_between	(	int	vertex_id_1,
		int	vertex_id_2
	)

Get the distance between two vertices.

Parameters

vertex_id_1 ID of vertex 1 vertex_id_2 ID of vertex 2

Returns: distance

◆ get_distance_between_entities()

double get_distance_between_entities	(	std::string	geom_type_1,
		int	entity_id_1,
		std::string	geom_type_2,
		int	entity_id_2
	)

Get the distance between two geom entities.

Parameters

geom_type_1 geometry type of entity 1: "vertex", "curve", "surface", "volume" entity_id_1 ID of entity 1 geom_type_2 geometry type of entity 2: "vertex", "curve", "surface", "volume" entity_id_2 ID of entity 2

Returns: distance

◆ get_distance_from_curve_start()

double get_distance_from_curve_start	(	double	x_coordinate,
		double	y_coordinate,
		double	z_coordinate,
		int	curve_id
	)

Get the distance from a point on a curve to the curve's start point.

Parameters

x	value of the point to measure
y	value of the point to measure
z	value of the point to measure
curve_id	ID of the curve

Returns: Distance from the xyz to the curve start

◆ get_edge_count()

int get_edge_count ( )

Get the count of edges in the model.

Returns: The number of edges in the model

◆ get_edge_global_element_id()

int get_edge_global_element_id ( int edge_id )

Given a edge id, return the global element id.

int gid = CubitInterface::get_edge_global_element_id (22);

CubitInterface::get_edge_global_element_id

int get_edge_global_element_id(int edge_id)

Given a edge id, return the global element id.

Parameters

edge_id Specifies the id of the edge

Returns: The corresponding element id

◆ get_edges_to_swap()

std::vector< int > get_edges_to_swap ( int curve_id )

Given a curve defining a knife edge between two triangle-meshed surfaces, return a list of edges on triangles at the curve that are good candidates for swapping. A good candidate for swapping means that if swapped, the two triangles at the knife's edge will have a larger interior dihedral angle between them, allowing a larger volume to accommodate tetmeshing.

Parameters

curve_id User-specified id of the curve

Returns: A list (python tuple) of edge ids contained

◆ get_elem_quality_stats()

std::vector< double > get_elem_quality_stats	(	const std::string &	entity_type,
		const std::vector< int >	id_list,
		const std::string &	metric_name,
		const double	single_threshold,
		const bool	use_low_threshold,
		const double	low_threshold,
		const double	high_threshold,
		const bool	make_group
	)

python callable version of the get_quality_stats without pass by reference arguments. All return values are stuffed into a double array

                  std::vector<int> id_list = {223, 226, 256};
               
double
                   single_threshold = 0.2;
               
bool
                   use_low_threshold = false
                  ;
               
double
                   low_threshold = 0.0;
               
double
                   high_threshold = 0.0;
               
bool
                   make_group = true
                  ;
               

                  std::vector<double>
               

                  quality_data = CubitInterface::get_elem_quality_stats
                  ("hex"
                  , id_list, "scaled jacobian"
                  ,
               

                   single_threshold, use_low_threshold,
               

                   low_threshold, high_threshold,
               

                   make_group);
               
double
                   min_value = quality_data[0];
               
double
                   max_value = quality_data[1];
               
double
                   mean_value = quality_data[2];
               
double
                   std_value = quality_data[3];
               
int
                   min_element_id = (int)quality_data[4];
               
int
                   max_element_id = (int)quality_data[5];
               
int
                   element_type = (int)quality_data[6];
               
int
                   bad_group_id = (int)quality_data[7];
               
int
                   num_elems = (int)quality_data[8];
               

                  std::vector<int> elem_ids(num_elems);
               
for
                   (int
                   i=9, j=0; i<quality_data.size(); i++, j++)
               

                   elem_ids[j] = (int
                  )quality_data[i];
               

Parameters

entity_type	Specifies the geometry type of the entity
id_list	Specifies a list of ids to work on
metric_name	Specify the metric used to determine the quality
single_threshold	Quality threshold value
use_low_threshold	use threshold as lower or upper bound
low_threshold	Quality threshold when using a lower and upper range
high_threshold	Quality threshold when using a lower and upper range

Returns: [0] min_value [1] max_value [2] mean_value [3] std_value [4] min_element_id [5] max_element_id [6] element_type 0 = edge, 1 = tri, 2 = quad, 3 = tet, 4 = hex [7] bad_group_id [8] size of mesh_list [9]...[n-1] mesh_list

◆ get_element_block()

int get_element_block ( int element_id )

return the block that a given element is in.

Parameters

element_id The element id (i.e. the global element export id)

Returns: block_id, the id of the containing block

◆ get_element_budget()

int get_element_budget	(	const std::string &	element_type,
		std::vector< int >	entity_id_list,
		int	auto_factor
	)

Get the element budget based on current size settings for a list of volumes.

Parameters

element_type	"hex" or "tet"
entity_id_list	List (vector) of volume ids
auto_factor	The current auto size factor value

Returns: The approximate number of elements that will be generated

◆ get_element_count()

int get_element_count ( )

Get the count of elements in the model.

Returns: The number of quad, hex, tet, tri, wedge, edge, spheres, etc. which have been assigned to a block, given a global element id, and will be exported.

◆ get_element_exists()

bool get_element_exists ( int element_id )

Check the existance of an element.

Parameters

element_id The element id (i.e. the global element export id)

Returns: true or false

◆ get_element_type()

std::string get_element_type ( int element_id )

return the type of a given element

Parameters

element_id The element id (i.e. the global element export id)

Returns: The type

◆ get_element_type_id()

int get_element_type_id ( int element_id )

return the type id of a given element

Parameters

element_id The element id (i.e. the global element export id)

Returns: type_id The hex, tet, wedge, etc. id is returned.

◆ get_entities()

std::vector< int > get_entities ( const std::string & entity_type )

Get all entities of a specified type (including geometry, mesh, etc...)

std::vector<int> entity_id_list;

entity_id_list = CubitInterface::get_entities ("volume" );

CubitInterface::get_entities

std::vector< int > get_entities(const std::string &entity_type)

Get all entities of a specified type (including geometry, mesh, etc...)

entity_id_list = cubit.get_entities("volume" )

Parameters

entity_type Specifies the type of the entity

Returns: A list (python tuple) of ids of the specified geometry type

◆ get_entity_color()

std::array< double, 4 > get_entity_color	(	const std::string &	entity_type,
		int	entity_id
	)

Get the color of a specified entity.

std::array<int,4> color_rgb = CubitInterface::get_entity_color ("curve" , 33);

CubitInterface::get_entity_color

std::array< double, 4 > get_entity_color(const std::string &entity_type, int entity_id)

Get the color of a specified entity.

color = cubit.get_entity_color("curve" , 33)

Parameters

entity_type	Specifies the type of the entity
entity_id	Specifies the id of the entity

Returns: The color of the entity

◆ get_entity_color_index()

int get_entity_color_index	(	const std::string &	entity_type,
		int	entity_id
	)

◆ get_entity_modeler_engine()

std::vector< std::string > get_entity_modeler_engine	(	const std::string &	geometry_type,
		int	entity_id
	)

Get the modeler engine type for a specified entity.

std::vector<std::string> engine_list;

engine_list = CubitInterface::get_entity_modeler_engine ("surface" , 47);

CubitInterface::get_entity_modeler_engine

std::vector< std::string > get_entity_modeler_engine(const std::string &geometry_type, int entity_id)

Get the modeler engine type for a specified entity.

engine_list = cubit.get_entity_modeler_engine("surface" , 47)

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

Returns: A vector (python tuple) of modeler engines associated with this entity

◆ get_entity_name()

std::string get_entity_name	(	const std::string &	entity_type,
		int	entity_id,
		bool	no_default = `false`
	)

Get the name of a specified entity.

Names returned are of two types: 1) user defined names which are actually stored in Cubit when the name is defined, and 2) 'default' names supplied by Cubit at run-time which are not stored in Cubit. The second variety of name cannot be used to query Cubit.

std::string name = CubitInterface::get_entity_name ("vertex" , 22);

CubitInterface::get_entity_name

std::string get_entity_name(const std::string &entity_type, int entity_id, bool no_default=false)

Get the name of a specified entity.

name = cubit.get_entity_name("vertex" , 22)

Parameters

entity_type	Specifies the type of the entity
entity_id	Specifies the id of the entity
no_default	True to return an empty string if no name is set

Returns: The name of the entity

◆ get_entity_names()

std::vector< std::string > get_entity_names	(	const std::string &	entity_type,
		int	entity_id,
		bool	no_default = `false`,
		bool	first_name_only = `false`
	)

same as get_entity_name but includes all name attributes set on the entity, not just the first one (unless first_name_only is set)

◆ get_entity_sense()

std::string get_entity_sense	(	std::string	source_type,
		int	source_id,
		int	sideset_id
	)

Get the sense of a sideset item.

std::string sense;

sense = CubitInterface::get_entity_sense ("face" , 332, 2);

CubitInterface::get_entity_sense

std::string get_entity_sense(std::string source_type, int source_id, int sideset_id)

Get the sense of a sideset item.

sense = cubit.get_entity_sense("face" , 332, 2)

Parameters

source_type	Item type - could be 'face', 'quad' or 'tri'
source_id	ID of entity
sideset_id	ID of the sideset

Returns: Sense of the source_type/source_id in specified sideset

◆ get_error_count()

int get_error_count ( )

Get the number of errors in the current Cubit session.

Returns: The number of errors in the Cubit session.

◆ get_exodus_element_count()

int get_exodus_element_count	(	int	entity_id,
		std::string	entity_type
	)

Get the number of elements in a exodus entity.

int element_count = CubitInterface::get_exodus_element_count (2, "sideset" );

CubitInterface::get_exodus_element_count

int get_exodus_element_count(int entity_id, std::string entity_type)

Get the number of elements in a exodus entity.

element_count = cubit.get_exodus_element_count(2, "sideset" )

Parameters

entity_id	The id of the entity
entity_type	The type of the entity

Returns: Number of Elements

◆ get_exodus_entity_description()

std::string get_exodus_entity_description	(	std::string	entity_type,
		int	entity_id
	)

Get the description associated with an exodus entity.

std::string entity_description;

entity_description = CubitInterface::get_exodus_entity_description ("sideset" , 33);

CubitInterface::get_exodus_entity_description

std::string get_exodus_entity_description(std::string entity_type, int entity_id)

Get the description associated with an exodus entity.

entity_description = cubit.get_exodus_entity_description("sideset" , 33)

Parameters

entity_type "block", "sideset", nodeset" @param entity_id Id of the entity in question \return Description of the entity or "" if none

◆ get_exodus_entity_name()

std::string get_exodus_entity_name	(	const std::string	entity_type,
		int	entity_id
	)

Get the name associated with an exodus entity.

std::string entity_name;

entity_name = CubitInterface::get_exodus_entity_name ("sideset" , 33);

CubitInterface::get_exodus_entity_name

std::string get_exodus_entity_name(const std::string entity_type, int entity_id)

Get the name associated with an exodus entity.

entity_name = cubit.get_exodus_entity_name("sideset" , 33)

Parameters

entity_type "block", "sideset", nodeset" @param entity_id Id of the entity in question \return Name of the entity or "" if none

◆ get_exodus_entity_type()

std::string get_exodus_entity_type	(	std::string	entity_type,
		int	entity_id
	)

Get the type of an exodus entity.

std::string entity_description;

entity_description = CubitInterface::get_exodus_entity_description ("sideset" , 33);

entity_description = cubit.get_exodus_entity_type("sideset" , 33)

Parameters

entity_type "block", "sideset", nodeset" @param entity_id Id of the entity in question \return Type of the entity or "" if none. Returns "lite" or ""

◆ get_exodus_id()

int get_exodus_id	(	const std::string &	entity_type,
		int	entity_id
	)

Get the exodus/genesis id for this element.

int exodus_id = CubitInterface::get_exodus_id ("hex" , 221);

CubitInterface::get_exodus_id

int get_exodus_id(const std::string &entity_type, int entity_id)

Get the exodus/genesis id for this element.

exodus_id = cubit.get_exodus_id("hex" , 221)

Parameters

entity_type	The mesh element type
entity_id	The mesh element id

Returns: Exodus id of the element if element has been written out, otherwise 0

◆ get_exodus_sizing_function_file_name()

std::string get_exodus_sizing_function_file_name ( )

Get the exodus sizing function file name.

Returns: The sizing function file name

◆ get_exodus_sizing_function_variable_name()

std::string get_exodus_sizing_function_variable_name ( )

Get the exodus sizing function variable name.

Returns: The sizing function variable name

◆ get_exodus_variable_count()

int get_exodus_variable_count	(	std::string	container_type,
		int	container_id
	)

Get the number of exodus variables in a nodeset, sideset, or block.

Parameters

entity_type : nodeset, sideset, or block block_id The block id

Returns: Number of exodus variables

◆ get_exodus_variable_names()

std::vector< std::string > get_exodus_variable_names	(	std::string	container_type,
		int	container_id
	)

Get the names of exodus variables in a nodeset, sideset, or block.

Parameters

entity_type : nodeset, sideset, or block block_id The block id

Returns: Names of exodus variables

◆ get_exodus_version()

std::string get_exodus_version ( )

Get the Exodus version number.

Returns: A string containing the Exodus version number

◆ get_expanded_connectivity()

std::vector< int > get_expanded_connectivity	(	const std::string &	entity_type,
		int	entity_id
	)

Get the list of node ids contained within a mesh entity, including interior nodes.

std::vector<int> node_id_list;

node_id_list = CubitInterface::get__expanded_connectivity("hex" , 221);

node_id_list = cubit.get__expanded_connectivity("hex" , 221)

Parameters

entity_type	The mesh element type
entity_id	The mesh element id

Returns: List (python tuple) of all node ids associated with the element, including interior nodes

◆ get_force_direction_vector()

std::array< double, 3 > get_force_direction_vector ( int entity_id )

Get the direction vector from a force.

Parameters

entity_id Id of the force

Returns: A vector (python tuple) [x,y,z] of the direction the given force is acting

◆ get_force_magnitude()

double get_force_magnitude ( int entity_id )

Get the force magnitude from a force.

Parameters

entity_id Id of the force

Returns: Magnitude of the given force

◆ get_force_moment_vector()

std::array< double, 3 > get_force_moment_vector ( int entity_id )

Get the moment vector from a force.

Parameters

entity_id Id of the force

Returns: A vector (python tuple) [x,y,z] of the direction of the moment for the given force

◆ get_gaps_between_volumes()

std::vector< VolumeGap > get_gaps_between_volumes	(	std::vector< int >	target_volume_ids,
		double	maximum_gap_tolerance,
		double	maximum_gap_angle,
		int	cache_overlaps = `0`
	)

◆ get_geometric_owner()

std::vector< std::string > get_geometric_owner	(	std::string	mesh_entity_type,
		std::string	mesh_entity_list
	)

Get a list of geometric owners given a list of mesh entities.

std::vector<std::string> owner_list;

owner_list = CubitInterface::get_geometric_owner ("quad" , id_list);

CubitInterface::get_geometric_owner

std::vector< std::string > get_geometric_owner(std::string mesh_entity_type, std::string mesh_entity_list)

Get a list of geometric owners given a list of mesh entities.

owner_list = cubit.get_geometric_owner("quad" , id_list)

Parameters

mesh_entity_type	The type of mesh entity. Works for 'quad, 'face', 'tri', 'hex', 'tet', 'edge', 'node'
mesh_entity_list	A string containing space delimited ids, Cubit command form (i.e. 'all', '1 to 8', '1 2 3', etc)

Returns: A list (python tuple) of geometry owners in the form of 'surface x', 'curve y', etc.

◆ get_geometry_node_count()

int get_geometry_node_count	(	const std::string &	entity_type,
		int	entity_id
	)

Get the node count for a specific geometric entity.

Parameters

entity_type	The geometry type ("surface", "curve", etc)
entity_id	The entity id

Returns: Number of nodes in the geometry

◆ get_geometry_owner()

std::string get_geometry_owner	(	const std::string &	entity_type,
		int	entity_id
	)

Get the geometric owner of this mesh element.

std::string geom_owner = CubitInterface::get_geometry_owner ("hex" , 221);

CubitInterface::get_geometry_owner

std::string get_geometry_owner(const std::string &entity_type, int entity_id)

Get the geometric owner of this mesh element.

geom_owner = cubit.get_geometry_owner("hex" , 221)

Parameters

entity_type	The mesh element type
entity_id	The mesh element id

Returns: Name of owner

◆ get_global_element_id()

int get_global_element_id	(	const std::string &	element_type,
		int	id
	)

Given a hex, tet, etc. id, return the global element id.

int gid = CubitInterface::get_global_element_id ("hex" , 22);

CubitInterface::get_global_element_id

int get_global_element_id(const std::string &element_type, int id)

Given a hex, tet, etc. id, return the global element id.

Parameters

id	Specifies the id of the hex, tet, etc. elem_type the type of the entity ("hex", "tet", "wedge", "pyramid", "tri", "face", "quad", "edge", or "sphere")

Returns: The corresponding element id

◆ get_graphics_version()

std::string get_graphics_version ( )

Get the VTK version number.

Returns: A string containing the VTK version number

◆ get_group_bodies()

std::vector< int > get_group_bodies ( int group_id )

Get group bodies (bodies that are children of a group)

This routine returns a list of bodies that are contained in a specified group.

Parameters

group_id ID of the group to examine return List (python tuple) of bodies ids contained in the specified group

◆ get_group_children()

void get_group_children	(	int	group_id,
		std::vector< int > &	returned_group_list,
		std::vector< int > &	returned_body_list,
		std::vector< int > &	returned_volume_list,
		std::vector< int > &	returned_surface_list,
		std::vector< int > &	returned_curve_list,
		std::vector< int > &	returned_vertex_list,
		int &	returned_node_count,
		int &	returned_edge_count,
		int &	returned_hex_count,
		int &	returned_quad_count,
		int &	returned_tet_count,
		int &	returned_tri_count,
		int &	returned_wedge_count,
		int &	returned_pyramid_count,
		int &	returned_sphere_count
	)

Get group children.

This routine returns a list for each geometry entity type in the group. Since groups may contain both geometry and mesh entities, this routine also returns the count of any mesh entity contained in the group. For groups contained in the group, the group_list will only contain one generation. In other words, if this routine is examining Group ABC, and Group ABC contains Group XYZ and Group XYZ happens to contain other groups (which in turn may contain other groups) this routine will only return the id of Group XYZ.

Parameters

group_id	ID of the group to examine
group_list	User specified list where group ids will be returned
body_list	User specified list where body ids will be returned
volume_list	User specified list where volume ids will be returned
surface_list	User specified list where surface ids will be returned
curve_list	User specified list where curve ids will be returned
vertex_list	User specified list where vertex ids will be returned
node_count	User specified variable where the number of nodes will be returned
edge_count	User specified variable where the number of edges will be returned
hex_count	User specified variable where the number of hexes will be returned
quad_count	User specified variable where the number of quads will be returned
tet_count	User specified variable where the number of tets will be returned
tri_count	User specified variable where the number of tris will be returned

◆ get_group_curves()

std::vector< int > get_group_curves ( int group_id )

Get group curves (curves that are children of a group)

This routine returns a list of curves that are contained in a specified group.

Parameters

group_id ID of the group to examine return List (python tuple) of curve ids contained in the specified group

◆ get_group_edges()

std::vector< int > get_group_edges ( int group_id )

Get group edges (edges that are children of a group)

This routine returns a list of edges that are contained in a specified group.

Parameters

group_id ID of the group to examine return List (python tuple) of edge ids contained in the specified group

◆ get_group_groups()

std::vector< int > get_group_groups ( int group_id )

Get group groups (groups that are children of another group)

This routine returns a list a groups that are contained in a specified group.

Parameters

group_id ID of the group to examine return List (python tuple) of group ids contained in the specified group

◆ get_group_hexes()

std::vector< int > get_group_hexes ( int group_id )

Get group hexes (hexes that are children of a group)

This routine returns a list of hexes that are contained in a specified group.

Parameters

group_id ID of the group to examine return List (python tuple) of hex ids contained in the specified group

◆ get_group_nodes()

std::vector< int > get_group_nodes ( int group_id )

Get group nodes (nodes that are children of a group)

This routine returns a list of nodes that are contained in a specified group.

Parameters

group_id ID of the group to examine return List (python tuple) of node ids contained in the specified group

◆ get_group_pyramids()

std::vector< int > get_group_pyramids ( int group_id )

Get group pyramids (pyramids that are children of a group)

This routine returns a list of pyramids that are contained in a specified group.

Parameters

group_id ID of the group to examine return List (python tuple) of pyramid ids contained in the specified group

◆ get_group_quads()

std::vector< int > get_group_quads ( int group_id )

Get group quads (quads that are children of a group)

This routine returns a list of quads that are contained in a specified group.

Parameters

group_id ID of the group to examine return List (python tuple) of quad ids contained in the specified group

◆ get_group_spheres()

std::vector< int > get_group_spheres ( int group_id )

Get group spheres (sphere elements that are children of a group)

This routine returns a list of spheres that are contained in a specified group.

Parameters

group_id ID of the group to examine return List (python tuple) of sphere ids contained in the specified group

◆ get_group_surfaces()

std::vector< int > get_group_surfaces ( int group_id )

Get group surfaces (surfaces that are children of a group)

This routine returns a list of surfaces that are contained in a specified group.

Parameters

group_id ID of the group to examine return List (python tuple) of surface ids contained in the specified group

◆ get_group_tets()

std::vector< int > get_group_tets ( int group_id )

Get group tets (tets that are children of a group)

This routine returns a list of tets that are contained in a specified group.

Parameters

group_id ID of the group to examine return List (python tuple) of tet ids contained in the specified group

◆ get_group_tris()

std::vector< int > get_group_tris ( int group_id )

Get group tris (tris that are children of a group)

This routine returns a list of tris that are contained in a specified group.

Parameters

group_id ID of the group to examine return List (python tuple) of tri ids contained in the specified group

◆ get_group_vertices()

std::vector< int > get_group_vertices ( int group_id )

Get group vertices (vertices that are children of a group)

This routine returns a list of vertices that are contained in a specified group.

Parameters

group_id ID of the group to examine return List (python tuple) of vertex ids contained in the specified group

◆ get_group_volumes()

std::vector< int > get_group_volumes ( int group_id )

Get group volumes (volumes that are children of a group)

This routine returns a list of volumes that are contained in a specified group.

Parameters

group_id ID of the group to examine return List (python tuple) of volume ids contained in the specified group

◆ get_group_wedges()

std::vector< int > get_group_wedges ( int group_id )

Get group wedges (wedges that are children of a group)

This routine returns a list of wedges that are contained in a specified group.

Parameters

group_id ID of the group to examine return List (python tuple) of wedge ids contained in the specified group

◆ get_heatflux_on_area()

double get_heatflux_on_area	(	CI_BCEntityTypes	bc_area_enum,
		int	entity_id
	)

Get the heatflux on a specified area.

Parameters

bc_area	enum of CI_BCEntityTypes. If on solid, use 4. If on thin shell, use 7 for top, 8 for bottom
entity_id	ID of the heatflux

Returns: The value or magnitude of the specified heatflux

◆ get_hex_count()

int get_hex_count ( )

Get the count of hexes in the model.

Returns: The number of hexes in the model

◆ get_hex_global_element_id()

int get_hex_global_element_id ( int hex_id )

Given a hex id, return the global element id.

int gid = CubitInterface::get_hex_global_element_id (22);

CubitInterface::get_hex_global_element_id

int get_hex_global_element_id(int hex_id)

Given a hex id, return the global element id.

Parameters

hex_id Specifies the id of the hex

Returns: The corresponding element id

◆ get_hex_sheet()

std::vector< int > get_hex_sheet	(	int	node_id_1,
		int	node_id_2
	)

Get the list of hex elements forming a hex sheet through the given two node ids. The nodes must be adjacent in the connectivity of the hex i.e. they form an edge of the hex.

Returns: A list (python tuple) of hex ids in the hex sheet

◆ get_hole_surfaces()

std::vector< int > get_hole_surfaces ( int surface_id )

Returns the adjacent surfaces in a hole for a surface.

Parameters

surface_id that is part of the hole

Returns: A list of surface id's in the hole (including surface_id).

◆ get_hydraulic_radius_surface_area()

double get_hydraulic_radius_surface_area ( int surface_id )

Get the area of a hydraulic surface.

Parameters

surface_id ID of the surface

Returns: Hydraulic area of the surface

◆ get_hydraulic_radius_volume_area()

double get_hydraulic_radius_volume_area ( int volume_id )

Get the area of a hydraulic volume.

Parameters

volume_id ID of the volume

Returns: Hydraulic area of the volume

◆ get_id_from_name()

int get_id_from_name ( const std::string & name )

Get id for a named entity.

This routine returns an integer id for the entity whose name is passed in.

int entity_id = CubitInterface::get_id_from_name ("member_2" );

CubitInterface::get_id_from_name

int get_id_from_name(const std::string &name)

Get id for a named entity.

entity_id = cubit.get_id_from_name("member_2" )

Parameters

name	Name of the entity to examine return Integer representing the entity

◆ get_id_string()

std::string get_id_string ( const std::vector< int > & entity_ids )

Parse a list of integers into a Cubit style id list. Return string will not include carriage returns or line break.

                  std::vector<int> entity_ids = {1, 2, 3, 4};
               
                  std::string id_string = CubitInterface::get_id_string
                  (entity_ids);
               
// id_string is "1 to 4";

                  entity_ids = [1,2,3,4]
               
                  id_string = cubit.get_all_ids_from_name(entity_ids)
               
# id_string is '1 to 4'

Parameters

entity_ids vector of integers return A string representing the id list without line breaks

◆ get_idless_signature()

std::string get_idless_signature	(	std::string	entity_type,
		int	entity_id
	)

get the idless signature of a geometric or mesh entity

Parameters

type	the type of the requested entity
id	the id of the requested entity

Returns: the idless signature i.e. curve at (1 1 0 ordinal 2)

◆ get_idless_signatures()

std::string get_idless_signatures	(	std::string	entity_type,
		const std::vector< int > &	entity_id_list
	)

get the idless signatures of a range of geometric or mesh entities

Parameters

type	the type of the requested entity
idlist	a list of ids

Returns: the idless signature i.e. curve at (1 1 0 ordinal 2) curve at (0 0 1 ordinal 1) ...

◆ get_int_sculpt_default()

int get_int_sculpt_default ( const char * variable )

◆ get_interface()

CubitBaseInterface * get_interface ( std::string interface_name )

Get the interface of a given name.

Parameters

interface_name the name of interface

◆ get_label_type()

int get_label_type ( const char * entity_type )

make calls to SVDrawTool::get_label_type

Returns: label type currently associated with entity_type

◆ get_last_id()

int get_last_id ( const std::string & entity_type )

Get the id of the last created entity of the given type.

int last_id = CubitInterface::get_last_id ("surface" );

CubitInterface::get_last_id

int get_last_id(const std::string &entity_type)

Get the id of the last created entity of the given type.

last_id = cubit.get_last_id("surface" )

Parameters

entity_type Type of the entity being queried

Returns: Integer id of last created entity

◆ get_list_of_free_ref_entities()

std::vector< int > get_list_of_free_ref_entities ( const std::string & geometry_type )

Get all free entities of a given geometry type.

std::vector<int> free_curve_id_list;

free_curve_id_list = CubitInterface::get_list_of_free_ref_entities ("curve" );

CubitInterface::get_list_of_free_ref_entities

std::vector< int > get_list_of_free_ref_entities(const std::string &geometry_type)

Get all free entities of a given geometry type.

free_curve_id_list = cubit.get_list_of_free_ref_entities("curve" )

Parameters

geom_type Specifies the geometry type of the free entity

Returns: A list (python tuple) of ids of the specified geometry type

◆ get_material_name()

std::string get_material_name ( int material_id )

Get the name of the material (or cfd media) with the given id.

Returns: A std::string with the material's name.

◆ get_material_name_list()

std::vector< std::string > get_material_name_list ( )

Get a list of all defined material names.

Returns: List (python tuple) of all the material names.

◆ get_material_property()

double get_material_property	(	CI_MaterialProperty	material_property_enum,
		int	entity_id
	)

Get the specified material property value.

Parameters

mp	enum of CI_MaterialProperty. 0-Elastic Modulus, 1-Shear Modulus, 2-Poisson Ratio, 3-Density, 4-Specific Heat, 5-Conductivity
entity_id	Id of the material

Returns: Value of the specified property for that material

◆ get_media_name_list()

std::vector< std::string > get_media_name_list ( )

Get a list of all defined material names.

Returns: List (python tuple) of all the material names.

◆ get_media_property()

int get_media_property ( int entity_id )

Get the media property value.

Parameters

entity_id Id of the media

Returns: Value of the media property, 0 == FLUID, 1 == POROUS, 2 == SOLID

◆ get_merge_setting()

std::string get_merge_setting	(	const std::string &	geometry_type,
		int	entity_id
	)

Get the merge setting for a specified entity.

std::string merge_setting = CubitInterface::get_merge_setting ("surface" , 33);

CubitInterface::get_merge_setting

std::string get_merge_setting(const std::string &geometry_type, int entity_id)

Get the merge setting for a specified entity.

merge_setting = cubit.get_merge_setting("surface" , 33)

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

Returns: A text string that indicates the merge setting for the entity

◆ get_merge_tolerance()

double get_merge_tolerance ( )

Get the current merge tolerance value.

Returns: The value of the current merge tolerance

◆ get_mergeable_curves()

std::vector< std::vector< int > > get_mergeable_curves ( std::vector< int > target_volume_ids )

Get the list of mergeable curves from a list of volumes/bodies.

Given a list of volume ids, this will return a list of potentially mergeable curves. The returned lists include lists of the merge partners.

Parameters

target_volume_ids List of volume ids to examine.

Returns: list of lists of mergeable curves (potentially more than a pair) Note: If using python, lists will be python tuples.

◆ get_mergeable_entities()

void get_mergeable_entities	(	std::vector< int >	target_volume_ids,
		std::vector< std::vector< int > > &	returned_surface_list,
		std::vector< std::vector< int > > &	returned_curve_list,
		std::vector< std::vector< int > > &	returned_vertex_list,
		double	merge_tol = `-1`
	)

This function only works from C++ Get the list of mergeable entities from a list of volumes

Given a list of volume ids, this will return 3 lists of potential merge candidates. The returned lists include lists of the merge partners.

Parameters

target_volume_ids	List of volume ids to examine.
surface_list	User specified list where mergeable surfaces will be stored
curve_list	User specified list where mergeable curves will be stored
vertex_list	User specified list where mergeable vertices will be stored
merge_tol	merge tolerance to determine mergable (optional). Uses the default merge_tolerance if not specified

◆ get_mergeable_surfaces()

std::vector< std::vector< int > > get_mergeable_surfaces ( std::vector< int > target_volume_ids )

Get the list of mergeable surfaces from a list of volumes/bodies.

Given a list of volume ids, this will return a list of potentially mergeable surfaces. The returned lists include lists of the merge partners.

Parameters

target_volume_ids List of volume ids to examine.

Returns: list of lists of mergeable surfaces (potentially more than a pair) Note: If using python, lists will be python tuples.

◆ get_mergeable_vertices()

std::vector< std::vector< int > > get_mergeable_vertices ( std::vector< int > target_volume_ids )

Get the list of mergeable vertices from a list of volumes/bodies.

Given a list of volume ids, this will return a list of potentially mergeable vertices. The returned lists include lists of the merge partners.

Parameters

target_volume_ids List of volume ids to examine.

Returns: list of lists of mergeable vertices (potentially more than a pair) Note: If using python, lists will be python tuples.

◆ get_mesh_edge_length()

double get_mesh_edge_length ( int edge_id )

Get the length of a mesh edge.

Parameters

edge_id Specifies the id of the edge

Returns: The length of the mesh edge

◆ get_mesh_element_type()

std::string get_mesh_element_type	(	const std::string &	entity_type,
		int	entity_id
	)

Get the mesh element type contained in the specified geometry.

std::string element_type = CubitInterface::get_mesh_element_type ("surface" , 2);

CubitInterface::get_mesh_element_type

std::string get_mesh_element_type(const std::string &entity_type, int entity_id)

Get the mesh element type contained in the specified geometry.

element_type = cubit.get_mesh_element_type("surface" , 2)

Parameters

entity_type	The type of entity
entity_id	The id of the entity

Returns: Mesh element type for that entity

◆ get_mesh_error_count()

int get_mesh_error_count ( )

◆ get_mesh_error_solutions()

std::vector< std::string > get_mesh_error_solutions ( int error_code )

Get the paired list of mesh error solutions and help context cues.

Parameters

error_code The error code associated with the error solution

Returns: List (python tuple) of 'married' strings. First string is solution text. Second string is help context cue. Third string is command_panel cue.

◆ get_mesh_errors()

std::vector< MeshErrorFeedback * > get_mesh_errors ( )

◆ get_mesh_geometry_approximation_angle()

double get_mesh_geometry_approximation_angle	(	std::string	geometry_type,
		int	entity_id
	)

Get the geometry approximation angle set for tri/tet meshing.

Parameters

geom_type	either "surface" or "volume"
entity_id	the entity id

Returns: boolean value as to whether or not the proximity flag is set

◆ get_mesh_group_parent_ids()

std::vector< int > get_mesh_group_parent_ids	(	const std::string &	element_type,
		int	element_id
	)

Get the group ids which are parents to the indicated mesh element.

std::vector<int> parent_id_list;

parent_id_list = CubitInterface::get_mesh_group_parent_ids ("tri" , 332);

CubitInterface::get_mesh_group_parent_ids

std::vector< int > get_mesh_group_parent_ids(const std::string &element_type, int element_id)

Get the group ids which are parents to the indicated mesh element.

parent_id_list = cubit.get_mesh_group_parent_ids("tri" , 332)

Parameters

element_type	Mesh type of the element
element_id	ID of the mesh element return List (python tuple) of group ids that contain this mesh element

◆ get_mesh_interval_firmness()

std::string get_mesh_interval_firmness	(	const std::string &	geometry_type,
		int	entity_id
	)

Get the mesh interval firmness for the specified entity. This may include influence from connected mesh intervals on connected geometry.

std::string firmness;

CubitInterface::get_mesh_interval_firmness ("surface" , 12);

CubitInterface::get_mesh_interval_firmness

std::string get_mesh_interval_firmness(const std::string &geometry_type, int entity_id)

Get the mesh interval firmness for the specified entity. This may include influence from connected me...

firmness = cubit.get_mesh_interval_firmness("surface" , 12)

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

Returns: The entity's meshing firmness (HARD, SOFT, LIMP) HARD = set directly SOFT = computed LIMP = not set

◆ get_mesh_intervals()

int get_mesh_intervals	(	const std::string &	geometry_type,
		int	entity_id
	)

Get the interval count for a specified entity.

int intervals = CubitInterface::get_mesh_intervals ("surface" , 12);

CubitInterface::get_mesh_intervals

int get_mesh_intervals(const std::string &geometry_type, int entity_id)

Get the interval count for a specified entity.

intervals = cubit.get_mesh_intervals("surface" , 12)

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

Returns: The entity's interval count

◆ get_mesh_scheme()

std::string get_mesh_scheme	(	const std::string &	geometry_type,
		int	entity_id
	)

Get the mesh scheme for the specified entity.

std::string scheme;

CubitInterface::get_mesh_scheme ("surface" , 12, scheme);

CubitInterface::get_mesh_scheme

std::string get_mesh_scheme(const std::string &geometry_type, int entity_id)

Get the mesh scheme for the specified entity.

scheme = cubit.get_mesh_scheme("surface" , 12)

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

Returns: The entity's meshing scheme

◆ get_mesh_scheme_firmness()

std::string get_mesh_scheme_firmness	(	const std::string &	geometry_type,
		int	entity_id
	)

Get the mesh scheme firmness for the specified entity.

std::string firmness;

CubitInterface::get_mesh_firmness("surface" , 12);

firmness = cubit.get_mesh_firmness("surface" , 12)

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

Returns: The entity's meshing firmness (HARD, LIMP, SOFT)

◆ get_mesh_size()

double get_mesh_size	(	const std::string &	geometry_type,
		int	entity_id
	)

Get the mesh size for a specified entity.

double mesh_size = CubitInterface::get_mesh_size ("volume" , 2);

CubitInterface::get_mesh_size

double get_mesh_size(const std::string &geometry_type, int entity_id)

Get the mesh size for a specified entity.

mesh_size = cubit.get_mesh_size("volume" , 2)

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

Returns: The entity's mesh size

◆ get_mesh_size_type()

std::string get_mesh_size_type	(	const std::string &	geometry_type,
		int	entity_id
	)

Get the mesh size setting type for the specified entity. This may include influence from attached geometry.

std::string firmness;

CubitInterface::get_mesh_size_setting_type("surface" , 12);

firmness = cubit.get_mesh_size_setting_type("surface" , 12)

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

Returns: The entity's mesh size type (USER_SET, CALCULATED, NOT_SET)

◆ get_meshed_volume_or_area()

double get_meshed_volume_or_area	(	const std::string &	geometry_type,
		std::vector< int >	entity_ids
	)

Get the total volume/area of a entity's mesh.

double area = CubitInterface::get_meshed_volume_or_area ("volume" , 1);

CubitInterface::get_meshed_volume_or_area

double get_meshed_volume_or_area(const std::string &geometry_type, std::vector< int > entity_ids)

Get the total volume/area of a entity's mesh.

area = cubit.get_meshed_volume_or_area("volume" , 1)

Parameters

geom_type	Specifies the type of entity - volume, surface, hex, tet, tri, quad
entity_ids	A list of ids for the entity type

Returns: The entity's meshed volume or area

◆ get_meshgems_version()

std::string get_meshgems_version ( )

Get the MeshGems version number.

Returns: A string containing the MeshGems version number

◆ get_ML_classification()

std::string get_ML_classification	(	std::string	geom_type,
		size_t	ent_id
	)

return the name of the classification category for this surface or volume. uses same methods as get_ML_predictions for volume_no_op or classify_surface. Same as calling get_ML_operation_features + get_ML_predictions with volume_no_op and classify_surface, but returns category with highest probablity.

Parameters

geom_type	"volume" or "surface"
ent_id	id of volume or surface to classify

Returns: string representing classification.

◆ get_ML_classification_categories()

std::vector< std::string > get_ML_classification_categories ( std::string geom_type )

return a list of strings representing all possible calssification categories for volumes or surfaces

Parameters

geom_type "volume" or "surface"

◆ get_ML_classification_models()

std::vector< std::string > get_ML_classification_models ( )

get the available classification ML model names

◆ get_ML_classifications()

std::vector< std::string > get_ML_classifications	(	std::string	geom_type,
		std::vector< size_t >	ent_ids
	)

same as get_ML_classification, but classifies multiple volumes or surfaces with a single call (more efficient)

Parameters

geom_type	"volume" or "surface"
ent_ids	vector of ids of volumes or surfaces to classify

Returns: vector of strings representing classification. Same order as vol_ids.

◆ get_ML_feature_distance()

double get_ML_feature_distance	(	const std::string	op_name,
		std::vector< double > &	f1,
		std::vector< double > &	f2
	)

feature distance is defined as a weighted distance between two feature vectors of the same size. Features are weighted on EDT (ensembles of decision trees) importance values.

Parameters

op_name	operation name (see get_ML_operation_features)
f1	first feature vector
f2	second feature vector

◆ get_ML_feature_importances()

std::vector< double > get_ML_feature_importances ( const std::string op_name )

return the vector of feature importances for a given operation type

◆ get_ML_model_ID()

int get_ML_model_ID ( std::string )

get a unique ID for the given operation/model name

Returns: 0 if failure or postive integer otherwise

◆ get_ML_model_name()

std::string get_ML_model_name ( int model_ID )

get the name for the given operation/model ID

Returns: empty string if failure

◆ get_ML_operation()

std::vector< std::string > get_ML_operation	(	const std::string	op_name,
		const size_t	entity_id1,
		const size_t	entity_id2,
		const std::vector< double >	params,
		const double	small_curve_size,
		const double	mesh_size
	)

get the command, display and preview strings for a given ML operation type

Parameters

op_name	operation name (see get_ML_operation_features)
entity1_id	first entity associated with operation (see table)
entity2_id	second entity associated with operation (see table)
params	optional parameters for operation

◆ get_ML_operation_feature_names()

std::vector< std::string > get_ML_operation_feature_names	(	const std::string	ml_op_name,
		bool	reduced_features = `false`
	)

for the given operation type described by get_ML_operation_features, return a vector of strings indicating the name of data for each feature in the vector.

Parameters

ml_op_name	name of ML model
reduced_features	optional currently supported only for volume_no_op. Uses 9 instead of 46 features for more efficient predictions

◆ get_ML_operation_feature_size()

int get_ML_operation_feature_size	(	const std::string	ml_op_name,
		const bool	reduced_features = `false`
	)

for the given operation type described by get_ML_operation_features, return the expected size of the feature vector

Parameters

ml_op_name	name of ML model
reduced_features	optional currently supported only for volume_no_op. Uses 9 instead of 46 features for more efficient predictions

◆ get_ML_operation_feature_types()

std::vector< std::string > get_ML_operation_feature_types	(	const std::string	ml_op_name,
		bool	reduced_features = `false`
	)

for the given operation type described by get_ML_operation_features, return a vector of strings indicating the type of data for each feature in the vector. Will return one of the following for each index:

boolean 1 or 0
categorical usually positive integer representing a unique category assignment (ie. planar vs conic vs spline surface type)

continuous could be double or integer describing a continuous range (i.e. number of adjacent curves, area of a surface, etc..)

Parameters

ml_op_name	name of ML model
reduced_features	optional currently supported only for volume_no_op. Uses 9 instead of 46 features for more efficient predictions

◆ get_ML_operation_features()

std::vector< std::vector< double > > get_ML_operation_features	(	std::vector< std::string >	ml_op_names,
		std::vector< size_t >	entity1_ids,
		std::vector< size_t >	entity2_ids,
		std::vector< std::vector< double > >	params,
		double	mesh_size,
		bool	reduced_features = `false`
	)

get machine learning features for a list of cubit operations

                  std::vector<std_string> ml_op_names = {"surface_no_op"
                  , "surface_no_op"
                  };
               
                  std::vector<int> entity1_ids = {20, 25}; // surface IDs
               
                  std::vector<int> entity2_ids = {0, 0}; // none for surface_no_op
               
                  std::vector<std::vector<double>> params = {{-1, -1, -1}, {-1, -1, -1}}; // dummy for surface no_op
               
double
                   mesh_size = 1.5924; // target mesh size
               
                  std::vector<std::vector<double>>
               
                  features = CubitInterface::get_ML_operation_features
                  (ml_op_names,
               
                   entity1_ids, entity2_ids,
               
                   params, mesh_size);

                  ml_op_names = ['surface_no_op'
                  , 'surface_no_op'
                  ]
               
                  entity1_ids = [20, 25] # surface
                   IDs
               
                  entity2_ids = [0, 0] # none for
                   surface_no_op
               
                  params = [[-1, -1, -1], [-1, -1, -1]] # dummy forsurface
                   no_op
               
                  mesh_size = 1.5924 # target mesh size
               
                  features = cubit.get_ML_operation_features(ml_op_names,
               
                   entity1_ids, entity2_ids,
               
                   params, mesh_size)

Parameters

ml_op_name

ML operation/model name. One of the following IDs: see also get_ML_regression_models and get_ML_classification_models

ID of operation
type of model (R) regression (C) classification
number of labels

1. 2. 3. ml_op_name Entity1 Entity2 Params

1 R 3 vertex_no_op vertex none 2 R 3 curve_no_op curve none 3 R 3 surface_no_op surface none 4 C 1 volume_no_op volume none 5 R 3 remove_surface surface none 6 R 3 tweak_replace_surface surface surface 7 R 3 composite_surfaces surface surface 8 R 3 collapse_curve curve vertex 9 R 3 remove_topology_curve curve curve 10 R 3 virtual_collapse_curve curve vertex 11 R 3 remove_topology_surface surface surface 12 R 3 blunt_tangency vertex none remove_mat, angle, depth 13 R 3 remove_cone surface none 14 R 3 collapse_angle vertex none real_split, angle, comp_vertex 15 R 3 remove_blend surface none 16 R 3 remove_cavity surface none 17 R 3 copy_surface volume surface nsurfs, id0, loft0, thick0, ... 18 R 3 midsurface volume surf0 surf1, loft, thick 19 C 1 classify_surface surface none

Parameters

entity1_ids	list of first entity ids associated with operation (see above table)
entity2_ids	list of second entity associated with operation (see above table)
params	array of parameters the operation needs to execute (see above table)
mesh_size	target mesh size for operation
reduced_features	optional currently supported only for "Volume No Operation=4". Uses 9 instead of 46 features for more efficient predictions

◆ get_ML_operation_features_()

std::vector< std::vector< double > > get_ML_operation_features_	(	std::vector< std::string >	ml_op_names,
		std::vector< int >	entity1_ids,
		std::vector< int >	entity2_ids,
		std::vector< std::vector< double > >	params,
		double	mesh_size,
		bool	reduced_features = `false`
	)

◆ get_ML_operation_label_size()

int get_ML_operation_label_size ( const std::string ml_op_name )

for the given operation type return length of label vector the expected size of the feature vector

Parameters

ml_op_name name of ML model

◆ get_ML_predictions()

std::vector< std::vector< double > > get_ML_predictions	(	std::vector< std::string >	ml_op_names,
		std::vector< size_t >	entity1_ids,
		std::vector< size_t >	entity2_ids,
		std::vector< std::vector< double > >	params,
		double	mesh_size,
		bool	reduced_features = `false`
	)

get machine learning predictions for the list of operations and corresponding entities. This function will load the ML training data if not already loaded. It will first compute features and then run predictions from training data. Uses scikit-learn EDT (Ensembles of Decision Trees) for predictions

Parameters

ml_op_names	list of ML operation/model names
entity1_ids	list of first entity ids associated with operation (see table)
entity2_ids	list of second entity associated with operation (see table)
params	array of parameters the operation needs to execute (see table)
mesh_size	target mesh size for operation
reduced_features	experimental optional - currently supported only for volume_no_op uses 9 instead of 46 features for more efficient predictions

Returns: resulting predictions. Vector of vectors - ordered one per operation. Length of return vector should be the number of labels used for the regression or classification method. Classification methods: volume_no_op, classify_surface length is number of categories. Values are confidence (0 to 1) in order of categories Regression methods: Copy Operation=17, Midsurface operation=18 length = 1, reward based fitness of operation (0 to 1) All other regression methods: predicted quality metric outcome of indicated operation: [0] Success or Failure. (1 or 0). success or failure of operation [1] Scaled Jacobian (-1 to 1). scaled jacobian metric of operation at entity [2] Scaled In-radius (0 to 1). scaled in-radius of operation at entity. Scales tet in-radius by normalizing in-radius of an equilateral tet where the size is edge-length=mesh_size [3] Scaled Deviation (0 to inf). predicted deviation of the tets near the entity from the geometry. Is the distance from a tet face (tri center) at the boundary to the geometry scaled by mesh_size

◆ get_ML_regression_models()

std::vector< std::string > get_ML_regression_models ( )

get the available regression ML model names

◆ get_moment_magnitude()

double get_moment_magnitude ( int entity_id )

Get the moment magnitude from a force.

Parameters

entity_id Id of the force

Returns: magnitude of the moment on the given force

◆ get_n_largest_distances_between_meshes()

std::vector< double > get_n_largest_distances_between_meshes	(	int	n,
		std::string	entity_type1,
		std::vector< int >	ids1,
		std::string	entity_type2,
		std::vector< int >	ids2
	)

Finds the 'n' largest distances between two meshes. These distances are from the nodes on the entities of 'ids1' to the elements in 'ids2'. Only triangle and face (quads) element types are supported. It is assumed that the meshes approximately line up.
Each distance is returned with three values:

The distance between a node and element.
The node id.
The element id. The output is given in a vector of three doubles for each distance. So if the user asked for the three largest distances, the vector would contain the 9 doubles, with the distances in descending order.

Returns

vector of distance, node id, element id, distance nod id, element id, ...

◆ get_narrow_regions()

std::vector< int > get_narrow_regions	(	std::vector< int >	target_ids,
		double	narrow_size
	)

Get the list of surfaces with narrow regions.

Parameters

target_volume_ids	List of volume ids to examine.
narrow_size	Indicate the size that defines 'narrowness'

Returns: List (python tuple) of surface ids

◆ get_narrow_surfaces()

std::vector< int > get_narrow_surfaces	(	std::vector< int >	target_volume_ids,
		double	mesh_size
	)

Get the list of narrow surfaces for a list of volumes.

'Narrow' is a function of the mesh_size passed into the routine. The mesh_size parameter will act as the threshold for determining what 'narrow' is.

Parameters

target_volume_ids	List of volume ids to examine.
mesh_size	Indicate the mesh size used as the threshold

Returns: List (python tuple) of small surface ids

◆ get_nearby_volumes_at_volume()

std::vector< int > get_nearby_volumes_at_volume	(	int	volume_id,
		std::vector< int >	compare_volumes,
		double	distance
	)

Get the list of nearby volumes from the model for a single volume.

Parameters

volume_id	volume to check.
volumes	to check against. If empty, will check against all volumes in model
maximum	distance betwen volumes. Optional. Use -1 to compute default tolerance

Returns: list of volumes that are nearby to volume_id from compare_volumes list

◆ get_next_block_id()

int get_next_block_id ( )

Get a next available block id.

Returns: Next available block id

◆ get_next_boundary_layer_id()

int get_next_boundary_layer_id ( )

◆ get_next_command_from_history()

std::string get_next_command_from_history ( )

Get 'next' command from history buffer.

Returns: A string which is the command

◆ get_next_group_id()

int get_next_group_id ( )

Get the next available group id from Cubit.

◆ get_next_nodeset_id()

int get_next_nodeset_id ( )

Get a next available nodeset id.

Returns: Next available nodeset id

◆ get_next_sideset_id()

int get_next_sideset_id ( )

Get a next available sideset id.

Returns: Next available sideset id

◆ get_nodal_coordinates()

std::array< double, 3 > get_nodal_coordinates ( int node_id )

Get the nodal coordinates for a given node id.

Parameters

node_id The node id

Returns: a triple (python tuple) containing the x, y, and z coordinates

◆ get_node_constraint()

bool get_node_constraint ( )

Query current setting for node constraint (move nodes to geometry)

Returns: True if constrained, otherwise false

◆ get_node_constraint_smart_metric()

std::string get_node_constraint_smart_metric ( )

Query current setting for node constraint smart metric Currently only for tets. Return either "distortion" of "normalized inradius".

Returns: Returns quality metric name for projecting mid-nodes

◆ get_node_constraint_smart_threshold()

double get_node_constraint_smart_threshold ( )

Query current setting for node constraint smart threshold.

Returns: Returns quality threshold for projecting mid-nodes

◆ get_node_constraint_value()

int get_node_constraint_value ( )

Query current setting for node constraint (move nodes to geometry)

Returns: Returns 0 (off), 1(on), 2(smart)

◆ get_node_count()

int get_node_count ( )

Get the count of nodes in the model.

Returns: The number of nodes in the model

◆ get_node_edges()

std::vector< int > get_node_edges ( int node_id )

Get the edge ids that share a node.

Parameters

node_id The node id

Returns: List (python tuple) of edge ids adjacent to the node

◆ get_node_exists()

bool get_node_exists ( int node_id )

Check the existance of a node.

Parameters

node_id The node id

Returns: true or false

◆ get_node_faces()

std::vector< int > get_node_faces ( int node_id )

|brief Get the face/quad ids that share a node

Parameters

node_id The node id

Returns: List (python tuple) of face/quad ids adjacent the node

◆ get_node_global_id()

int get_node_global_id ( int node_id )

Given a node id, return the global element id that is assigned when the mesh is exported.

int gid = CubitInterface::get_node_global_id (22);

CubitInterface::get_node_global_id

int get_node_global_id(int node_id)

Given a node id, return the global element id that is assigned when the mesh is exported.

Parameters

node_id Specifies the id of the sphere

Returns: The corresponding global node id

◆ get_node_position_fixed()

bool get_node_position_fixed ( int node_id )

Query "fixedness" state of node. A fixed node is not affecting by smoothing.

Parameters

node_id The node id

Returns: True if constrained, otherwise false

◆ get_node_tris()

std::vector< int > get_node_tris ( int node_id )

|brief Get the tri ids that share a node

Parameters

node_id The node id

Returns: List (python tuple) of tri ids adjacent the node

◆ get_nodeset_children()

void get_nodeset_children	(	int	nodeset_id,
		std::vector< int > &	returned_node_list,
		std::vector< int > &	returned_volume_list,
		std::vector< int > &	returned_surface_list,
		std::vector< int > &	returned_curve_list,
		std::vector< int > &	returned_vertex_list
	)

get lists of any and all possible children of a nodeset

A nodeset can contain a variety of entity types. This routine will return all contents of a specified nodeset.

Parameters

nodeset_id	User specified id of the desired nodeset
node_list	User specified list where nodes associated with this nodeset are returned
volume_list	User specified list where volumes associated with this nodeset are returned
surface_list	User specified list where surfaces associated with this nodeset are returned
curve_list	User specified list where curves associated with this nodeset are returned
vertex_list	User specified list where vertices associated with this nodeset are returned

◆ get_nodeset_count()

int get_nodeset_count ( )

Get the current number of sidesets.

Returns: The number of sidesets in the current model, if any

◆ get_nodeset_curves()

std::vector< int > get_nodeset_curves ( int nodeset_id )

Get a list of curve ids associated with a specific nodeset.

Parameters

nodeset_id User specified id of the desired nodeset

Returns: A list (python tuple) of curve ids contained in the nodeset

◆ get_nodeset_id_list()

std::vector< int > get_nodeset_id_list ( )

Get a list of all nodesets.

Returns: List (python tuple) of all active nodeset ids

◆ get_nodeset_id_list_for_bc()

std::vector< int > get_nodeset_id_list_for_bc	(	CI_BCTypes	bc_type_enum,
		int	bc_id
	)

Get a list of all nodesets the specified bc is applied to.

Parameters

bc_type_in	Type of bc to query, as defined by enum CI_BCTypes. 1-9 is FEA, 10-30 is CFD
bc_id	ID of the bc to query

Returns: A list (python tuple) of nodeset ID's associated with that bc

◆ get_nodeset_node_count()

int get_nodeset_node_count ( int nodeset_id )

Get the number of nodes in a nodeset.

Parameters

nodeset_id The nodeset id

Returns: Number of nodes in the nodeset

◆ get_nodeset_nodes()

std::vector< int > get_nodeset_nodes ( int nodeset_id )

Get a list of node ids associated with a specific nodeset. This only returns the nodes that were specifically assigned to this nodeset. If the nodeset was created as a piece of geometry, get_nodeset_nodes will not return the nodes on that geometry See also get_nodeset_nodes_inclusive.

Parameters

nodeset_id User specified id of the desired nodeset

Returns: A list (python tuple) of node ids contained in the nodeset

◆ get_nodeset_nodes_inclusive()

std::vector< int > get_nodeset_nodes_inclusive ( int nodeset_id )

Get a list of node ids associated with a specific nodeset. This includes all nodes specifically assigned to the nodeset, as well as nodes associated to a piece of geometry which was used to define the nodeset.

Parameters

nodeset_id User specified id of the desired nodeset

Returns: A list (python tuple) of node ids contained in the nodeset

◆ get_nodeset_surfaces()

std::vector< int > get_nodeset_surfaces ( int nodeset_id )

Get a list of surface ids associated with a specific nodeset.

Parameters

nodeset_id User specified id of the desired nodeset

Returns: A list (python tuple) of surface ids contained in the nodeset

◆ get_nodeset_vertices()

std::vector< int > get_nodeset_vertices ( int nodeset_id )

Get a list of vertex ids associated with a specific nodeset.

Parameters

nodeset_id User specified id of the desired nodeset

Returns: A list (python tuple) of vertex ids contained in the nodeset

◆ get_nodeset_volumes()

std::vector< int > get_nodeset_volumes ( int nodeset_id )

Get a list of volume ids associated with a specific nodeset.

Parameters

nodeset_id User specified id of the desired nodeset

Returns: A list (python tuple) of volume ids contained in the nodeset

◆ get_num_volume_shells()

int get_num_volume_shells ( int volume_id )

Get the number of shells in this volume.

Parameters

volume_id ID of the volume

Returns: Number of shells in the volume

◆ get_overlap_max_angle()

double get_overlap_max_angle ( void )

Get the max angle setting for calculating surface overlaps.

Returns: The max angle setting

◆ get_overlap_max_gap()

double get_overlap_max_gap ( void )

Get the max gap setting for calculating surface overlaps.

Returns: The max gap setting

◆ get_overlap_min_gap()

double get_overlap_min_gap ( void )

Get the min gap setting for calculating surface overlaps.

Returns: The min gap setting

◆ get_overlapping_curves()

void get_overlapping_curves	(	std::vector< int >	target_surface_ids,
		double	min_gap,
		double	max_gap,
		std::vector< int > &	returned_curve_list_1,
		std::vector< int > &	returned_curve_list_2,
		std::vector< double > &	returned_distance_list
	)

For every occurance of two overlapping curves, two curve ids are returned. Those ids are returned in the indicated lists and are aligned. In other words the first id in curv_list_1 overlaps with the first id in curv_list_2. The second id in curv_list_1 overlaps with the second id in curv_list-2, and so on.

Parameters

target_surface_ids	List of surface ids to examine.
min_gap	minimum overlap distance between curves to return
max_gap	maximum overlap distance between curves to return
returned_curve_list_1	User specified list where the ids of overlapping curves will be returned
returned_curve_list_2	User specified list where the ids of overlapping curves will be returned
returned_distance_list	Corresponding user specified list where distances between curves will be returned

◆ get_overlapping_surfaces()

void get_overlapping_surfaces	(	std::vector< int >	target_surface_ids,
		std::vector< int > &	returned_surface_list_1,
		std::vector< int > &	returned_surface_list_2,
		std::vector< double > &	returned_distance_list,
		std::vector< double > &	returned_overlap_area_list,
		bool	filter_slivers = `false`,
		bool	filter_volume_overlaps = `false`,
		int	cache_overlaps = `0`
	)

This function only works from C++ Get the list of overlapping surfaces for a list of surfaces

For every occurance of two overlapping surfaces, two surfaces ids are returned. Those ids are returned in the indicated lists and are aligned. In other words the first id in surf_list_1 overlaps with the first id in surf_list_2. The second id in surf_list_1 overlaps with the second id in surf_list-2, and so on.

Parameters

target_surface_ids	List of surface ids to examine.
returned_surface_list_1	User specified list where the ids of overlapping surfaces will be returned
returned_surface_list_2	User specified list where the ids of overlapping surfaces will be returned
returned_distance_list	Corresponding user specified list where distances between surfaces will be returned
returned_overlap_area_list	Corresponding user specified list where overlap areas between surfaces will be returned
filter_slivers	whether to return filter slivers
filter_volume_overlaps	whether to return surfaces on the same volume
cache_overlaps	speed up overlaps by caching and using previously computed results. Default 0 = no caching. 1 = clear out old values first. 2 = use and add to existing cache

◆ get_overlapping_surfaces_at_surface()

std::vector< int > get_overlapping_surfaces_at_surface	(	int	surface_id,
		std::vector< int >	compare_volumes,
		int	cache_overlaps = `0`
	)

Get the list of overlapping surfaces from the model for a single surface.

Parameters

surface_id	surface to check.
compare_volumes	volumes to check against. If empty, will check against all volumes in model

Returns: list of surfaces that overlap surface_id from compare_volumes list

◆ get_overlapping_surfaces_in_bodies()

std::vector< std::vector< int > > get_overlapping_surfaces_in_bodies	(	std::vector< int >	body_ids,
		bool	filter_slivers = `false`
	)

returns a vector of vectors defining surface overlaps The first surface (id) in each vector overlaps with all subsequent surfaces in the vector.

Parameters

body_ids	List of bodies to search for surface overlaps
filter_sliver	Optional parameter that removes false positives from the output omitting overlapping pairs sharing a merged curve sharing merged curves. bodies = [ 15, 19, 24, 88 ] my_overlaps = cubit.get_overlapping_surfaces_in_bodies( bodies )

◆ get_overlapping_surfaces_in_volumes()

void get_overlapping_surfaces_in_volumes	(	std::vector< int >	target_volume_ids,
		std::vector< int > &	returned_surface_list_1,
		std::vector< int > &	returned_surface_list_2,
		std::vector< double > &	returned_distance_list,
		std::vector< double > &	returned_overlap_area_list,
		bool	filter_slivers = `false`,
		bool	filter_volume_overlaps = `false`,
		int	cache_overlaps = `0`
	)

This function only works from C++ Get the list of overlapping surfaces for a list of volumes

For every occurance of two overlapping surfaces, two surfaces ids are returned. Those ids are returned in the indicated lists and are aligned. In other words the first id in surf_list_1 overlaps with the first id in surf_list_2. The second id in surf_list_1 overlaps with the second id in surf_list-2, and so on.

Parameters

target_volume_ids	List of volume ids to examine.
surf_list_1	User specified list where the ids of overlapping surfaces will be returned
surf_list_2	User specified list where the ids of overlapping surfaces will be returned
returned_distance_list	Corresponding user specified list where distances between surfaces will be returned
returned_overlap_area_list	Corresponding user specified list where overlap areas between surfaces will be returned
filter_slivers	whether to return filter slivers
filter_volume_overlaps	whether to return surfaces on the same volume
cache_overlaps	speed up overlaps by caching and using previously computed results. Default 0 = no caching. 1 = clear out old values first. 2 = use and add to existing cache

◆ get_overlapping_volumes()

std::vector< int > get_overlapping_volumes ( std::vector< int > target_volume_ids )

Get the list of overlapping volumes for a list of volumes.

For every occurance of two overlapping volumes, two volume ids are returned in volume_list. Modulus 2 of the volume_list should always be 0 (the list should contain an even number of volume ids). The first volume id in the returned list overlaps with the second volume id. The third volume id overlaps with the fourth volume id, and so on.

Parameters

target_volume_ids List of volume ids to examine.

Returns: List (python tuple) of overlapping volumes ids

◆ get_overlapping_volumes_at_volume()

std::vector< int > get_overlapping_volumes_at_volume	(	int	volume_id,
		std::vector< int >	compare_volumes
	)

Get the list of overlapping volumes from the model for a single volume.

Parameters

volume_id	volume to check.
volumes	to check against. If empty, will check against all volumes in model

Returns: list of volumes that overlap volume_id from compare_volumes list

◆ get_owning_body()

int get_owning_body	(	const std::string &	geometry_type,
		int	entity_id
	)

Get the owning body for a specified entity.

int body_id = CubitInterface::get_owning_body ("curve" , 12);

CubitInterface::get_owning_body

int get_owning_body(const std::string &geometry_type, int entity_id)

Get the owning body for a specified entity.

body_id = cubit.get_owning_body("curve" , 12)

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

Returns: ID of the specified entity's owning body

◆ get_owning_volume()

int get_owning_volume	(	const std::string &	geometry_type,
		int	entity_id
	)

Get the owning volume for a specified entity.

int volume_id = CubitInterface::get_owning_volume ("curve" , 12);

CubitInterface::get_owning_volume

int get_owning_volume(const std::string &geometry_type, int entity_id)

Get the owning volume for a specified entity.

volume_id = cubit.get_owning_volume("curve" , 12)

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

Returns: ID of the specified entity's owning volume

◆ get_owning_volume_by_name()

int get_owning_volume_by_name ( const std::string & entity_name )

Get the owning volume for a specified entity.

int volume_id = CubitInterface::get_owning_volume_by_name ("TipSurface" );

CubitInterface::get_owning_volume_by_name

int get_owning_volume_by_name(const std::string &entity_name)

Get the owning volume for a specified entity.

volume_id = cubit.get_owning_volume_by_name("TipSurface" )

Parameters

entity_name Specifies the name (supplied by Cubit) of the entity

Returns: ID of the specified entity's owning volume or 0 if name is unknown

◆ get_owning_volume_ids()

void get_owning_volume_ids	(	const std::string &	entity_type,
		std::vector< int > &	entity_list,
		std::vector< int > &	volume_ids
	)

Gets the id's of the volumes that are owners of one of the specified entities.

Parameters

entity_type
entity_list
vol_ids

◆ get_parent_assembly_instance()

int get_parent_assembly_instance ( int assembly_id )

Get the stored instance number of an assembly node's instance.

Parameters

assembly_id Id that identifies the assembly node

Returns: Instance of the assembly node' instance

◆ get_parent_assembly_path()

std::string get_parent_assembly_path ( int assembly_id )

Get the stored path of an assembly node' parent.

Parameters

assembly_id Id that identifies the assembly node

Returns: Path of the assembly node' parent

◆ get_periodic_data()

void get_periodic_data	(	const std::string &	geometry_type,
		int	entity_id,
		double &	returned_interval,
		std::string &	returned_firmness,
		int &	returned_lower_bound,
		std::string &	returned_upper_bound
	)

Get the periodic data for a surface or curve.

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity
interval	User specified variable where interval count for the specified entity is returned
firmness	User specified variable where a firmness of 'hard', 'soft', or 'default' is returned
lower_bound	User specified variable where the lower bound value is returned
upper_bound	User specified variable where the upper bound value is returned

◆ get_pick_filters()

std::vector< std::string > get_pick_filters ( )

Get a list of the current pick filters.

◆ get_pick_type()

const char * get_pick_type ( )

Get the current pick type.

Returns: The current pick type of the graphics system

◆ get_playback_handler()

ExternalPlaybackHandler * get_playback_handler ( )

◆ get_pressure_function()

std::string get_pressure_function ( int entity_id )

Get the pressure function.

Parameters

entity_id Id of the pressure

Returns: The pressure function

◆ get_pressure_value()

double get_pressure_value ( int entity_id )

Get the pressure value.

Parameters

entity_id Id of the pressure

Returns: The value or magnitude of the given pressure

◆ get_previous_command_from_history()

std::string get_previous_command_from_history ( )

Get 'previous' command from history buffer.

Returns: A string which is the command

◆ get_pyramid_count()

int get_pyramid_count ( )

Get the count of pyramids in the model.

Returns: The number of pyramids in the model

◆ get_pyramid_global_element_id()

int get_pyramid_global_element_id ( int pyramid_id )

Given a pyramid id, return the global element id.

int gid = CubitInterface::get_pyramid_global_element_id (22);

CubitInterface::get_pyramid_global_element_id

int get_pyramid_global_element_id(int pyramid_id)

Given a pyramid id, return the global element id.

Parameters

pyramid_id Specifies the id of the pyramid

Returns: The corresponding element id

◆ get_python_version()

std::string get_python_version ( )

get the python version used in cubit

Returns: A string containing the python version number

◆ get_quad_count()

int get_quad_count ( )

Get the count of quads in the model.

Returns: The number of quads in the model

◆ get_quad_global_element_id()

int get_quad_global_element_id ( int quad_id )

Given a quad id, return the global element id.

int gid = CubitInterface::get_quad_global_element_id (22);

CubitInterface::get_quad_global_element_id

int get_quad_global_element_id(int quad_id)

Given a quad id, return the global element id.

Parameters

quad_id Specifies the id of the quad

Returns: The corresponding element id

◆ get_quality_stats()

void get_quality_stats	(	const std::string &	entity_type,
		std::vector< int >	id_list,
		const std::string &	metric_name,
		double	single_threshold,
		bool	use_low_threshold,
		double	low_threshold,
		double	high_threshold,
		double &	min_value,
		double &	max_value,
		double &	mean_value,
		double &	std_value,
		int &	min_element_id,
		int &	max_element_id,
		std::vector< int > &	mesh_list,
		std::string &	element_type,
		int &	bad_group_id,
		bool	make_group = `false`
	)

Get the quality stats for a specified entity.

Parameters

entity_type	Specifies the geometry type of the entity
id_list	Specifies a list of ids to work on
metric_name	Specify the metric used to determine the quality
single_threshold	Quality threshold value
use_low_threshold	use threshold as lower or upper bound
low_threshold	Quality threshold when using a lower and upper range
high_threshold	Quality threshold when using a lower and upper range
min_value	Quality value of the worst element
max_value	Quality value of the best element
mean_value	Average quality value of all elements
std_value	Std deviationvalue of all elements
min_element_id	ID of the worst element
max_element_id	ID of the best element
mesh_list	list of failed elements
element_type	type of failed elements (does not support mixed element types)
make_group	whether to create a group or not
bad_group_id	ID of the created group
min_value	User specified variable where the minimum quality value will be returned
max_value	User specified variable where the maximum quality value will be returned
mean_value	User specified variable where the mean quality value will be returned
std_value	User specified variable where the standard deviation quality value will be returned

◆ get_quality_stats_at_geometry()

std::vector< double > get_quality_stats_at_geometry	(	const std::string &	geom_type,
		const std::string &	mesh_type,
		const std::vector< int >	geom_id_list,
		const int	expand_levels,
		const std::string &	metric_name,
		const double	single_threshold,
		const bool	use_low_threshold,
		const double	low_threshold,
		const double	high_threshold,
		const bool	make_group
	)

get element quality at a list of geometry entities. Finds all elements with nodes ON/IN the specified geometry and finds the quality of all elements of the specfied element type that are connected. Same arguments and return values as get_elem_quality_stats except a geometry and element type are used as arguments

                  std::vector<int> geom_ids = {4, 5};
               
                  expand_levels = 2
               
double
                   single_threshold = 0.2;
               
bool
                   use_low_threshold = false
                  ;
               
double
                   low_threshold = 0.0;
               
double
                   high_threshold = 0.0;
               
bool
                   make_group = true
                  ;
               
                  std::vector<double>
               
                  quality_data = CubitInterface::get_quality_stats_at_geometry
                  ("surface"
                  , "tet"
                  ,
               
                   geom_ids, expand_levels, "scaled jacobian"
                  ,
               
                   single_threshold, use_low_threshold,
               
                   low_threshold, high_threshold,
               
                   make_group);
               
double
                   min_value = quality_data[0];
               
double
                   max_value = quality_data[1];
               
double
                   mean_value = quality_data[2];
               
double
                   std_value = quality_data[3];
               
int
                   min_element_id = (int)quality_data[4];
               
int
                   max_element_id = (int)quality_data[5];
               
int
                   element_type = (int)quality_data[6];
               
int
                   bad_group_id = (int)quality_data[7];
               
int
                   num_elems = (int)quality_data[8];
               
                  std::vector<int> elem_ids(num_elems);
               
for
                   (int
                   i=9, j=0; i<quality_data.size(); i++, j++)
               
                   elem_ids[j] = (int
                  )quality_data[i];

Parameters

geom_type	Specifies the geometry type of the entities
mesh_type	Specifies the element type to find quality at geom entities
id_list	Specifies a list of geometry entity ids to work on
expand_levels	Number of element levels from target geometry to expand
metric_name	Specify the metric used to determine the quality
single_threshold	Quality threshold value
use_low_threshold	use threshold as lower or upper bound
low_threshold	Quality threshold when using a lower and upper range
high_threshold	Quality threshold when using a lower and upper range

Returns: [0] min_value [1] max_value [2] mean_value [3] std_value [4] min_element_id [5] max_element_id [6] element_type 0 = edge, 1 = tri, 2 = quad, 3 = tet, 4 = hex [7] bad_group_id [8] size of mesh_list [9]...[n-1] mesh_list

◆ get_quality_value()

double get_quality_value	(	const std::string &	mesh_type,
		int	mesh_id,
		const std::string &	metric_name
	)

Get the metric value for a specified mesh entity.

CubitInterface::get_quality_value ("hex" , 223, "skew" );

CubitInterface::get_quality_value

double get_quality_value(const std::string &mesh_type, int mesh_id, const std::string &metric_name)

Get the metric value for a specified mesh entity.

Parameters

mesh_type	Specifies the mesh entity type (hex, tet, tri, quad)
mesh_id	Specifies the id of the mesh entity
metric_name	Specifies the name of the metric (skew, taper, jacobian, etc)

Returns: The value of the quality metric

◆ get_quality_values()

std::vector< double > get_quality_values	(	const std::string &	mesh_type,
		std::vector< int >	mesh_ids,
		const std::string &	metric_name
	)

Get the metric values for specified mesh entities.

CubitInterface::get_quality_value ("hex" , [223, 224, 225] "skew" );

Parameters

mesh_type	Specifies the mesh entity type (hex, tet, tri, quad)
mesh_ids	Specifies the ids of the mesh entities
metric_name	Specifies the name of the metric (skew, taper, jacobian, etc)

Returns: The values of the quality metric

◆ get_reduce_bolt_core_default_dimensions()

std::vector< double > get_reduce_bolt_core_default_dimensions ( int vol_id )

get default dimensions for reduce vol bolt core operation

Parameters

vol_id volume ID. Should represent bolt geometry

Returns: c1, c2, c3 dimensions

◆ get_relatives()

std::vector< int > get_relatives	(	const std::string &	source_geometry_type,
		int	source_id,
		const std::string &	target_geom_type
	)

Get the relatives (parents/children) of a specified entity.

This can be used to get either ancestors or predecessors for a specific entity. Only one specified entity type is returned with one use of the routine. For example, to get all surface parents associated with Curve 1, 'curve' is the source_geometry_type, '1' is the source_id, and 'surface' is the target_geom_type.

std::vector<int> relative_list;

curve_list = CubitInterface::get_relatives ("surface" , 12, "curve" );

CubitInterface::get_relatives

std::vector< int > get_relatives(const std::string &source_geometry_type, int source_id, const std::string &target_geom_type)

Get the relatives (parents/children) of a specified entity.

curve_list = cubit.get_relatives("surface" , 12, "curve" )

Parameters

source_geom_type	The entity type of the source entity
source_id	The id of the source entity
target_geom_type	The target geometry type

Returns: A list (python tuple) of ids of the target geometry type

◆ get_rendering_mode()

int get_rendering_mode ( )

Get the current rendering mode.

Returns: The current rendering mode of the graphics subsystem

◆ get_requested_mesh_interval_firmness()

std::string get_requested_mesh_interval_firmness	(	const std::string &	geometry_type,
		int	entity_id
	)

Get the mesh interval firmness for the specified entity as set specifically on the entity.

std::string firmness;

CubitInterface::get_requested_mesh_interval_firmness ("surface" , 12);

CubitInterface::get_requested_mesh_interval_firmness

std::string get_requested_mesh_interval_firmness(const std::string &geometry_type, int entity_id)

Get the mesh interval firmness for the specified entity as set specifically on the entity.

firmness = cubit.get_requested_mesh_interval_firmness("surface" , 12)

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

Returns: The entity's meshing firmness (HARD, SOFT, LIMP) HARD = set directly SOFT = computed LIMP = not set

◆ get_requested_mesh_intervals()

int get_requested_mesh_intervals	(	const std::string &	geometry_type,
		int	entity_id
	)

Get the interval count for a specified entity as set specifically on that entity.

int intervals = CubitInterface::get_meshed_intervals("surface" , 12);

intervals = cubit.get_meshed_intervals("surface" , 12)

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

Returns: The entity's interval count

◆ get_requested_mesh_size()

double get_requested_mesh_size	(	const std::string &	geometry_type,
		int	id
	)

Get the requested mesh size for a specified entity. This returns a size that has been set specifically on the entity and not averaged from parents.

double mesh_size = CubitInterface::get_requested_meshed_size("volume" , 2);

mesh_size = cubit.get_mesh_size("volume" , 2)

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

Returns: The entity's requested mesh size

◆ get_requested_mesh_size_type()

std::string get_requested_mesh_size_type	(	const std::string &	geometry_type,
		int	entity_id
	)

Get the mesh size setting type for the specified entity as set specifically on the entity.

std::string firmness;

CubitInterface::get_requested_mesh_size_setting_type("surface" , 12);

firmness = cubit.get_requested_mesh_size_setting_type("surface" , 12)

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

Returns: The entity's mesh size type (USER_SET, CALCULATED, NOT_SET)

◆ get_revision_date()

std::string get_revision_date ( )

Get the Cubit revision date.

Returns: A string containing Cubit's last date of revision

◆ get_rubberband_shape()

int get_rubberband_shape ( )

Get the current rubberband select mode.

Returns: 0 for box, 1, for polygon, 2 for circle

◆ get_selected_id()

int get_selected_id ( int index )

Get the selected id based on an index.

Returns: An id based on the passed in index

◆ get_selected_ids()

std::vector< int > get_selected_ids ( )

Get a list of the currently selected ids.

Returns: A list of the currently selected ids

◆ get_selected_type()

std::string get_selected_type ( int index )

Get the selected type based on an index.

Returns: A type based on the passed in index

◆ get_sharp_angle_vertices()

std::vector< std::vector< double > > get_sharp_angle_vertices	(	std::vector< int >	target_volume_ids,
		double	upper_bound,
		double	lower_bound
	)

Get the list of vertices at sharp curve angles for a list of volumes returns two parallel arrays. First array are the vertex ids and second are the associated angles at the vertices.

'Sharp' is a function of the upper_bound and lower_bound threshold parameters. The id of vertices is returned. Similar to get_sharp_curve_angles except only vertices are returned with angles above upper_bound and below lower_bound

Parameters

target_volume_ids	List of volume ids to examine.
upper_bound	Upper threshold angle
lower_bound	Lower threshold angle

◆ get_sharp_curve_angles()

void get_sharp_curve_angles	(	std::vector< int >	target_volume_ids,
		std::vector< int > &	returned_large_curve_angles,
		std::vector< int > &	returned_small_curve_angles,
		std::vector< double > &	returned_large_angles,
		std::vector< double > &	returned_small_angles,
		double	upper_bound,
		double	lower_bound
	)

Get the list of sharp curve angles for a list of volumes.

'Sharp' is a function of the upper_bound and lower_bound threshold parameters. The id of curves are returned when any angle associated with a curve is less than the lower_bound or greater than the upper_bound.

Parameters

target_volume_ids	List of volume ids to examine.
large_curve_angles	User specified list where the ids of curves with curve angles will be returned
small_curve_angles	User specified list where the ids of curves with small angles will be returned
large_angles	User specified list where the angles associated with large_curve_angles will be returned. Angles returned are in the same order as the ids returned in large_curve_angles.
small_angles	User specified list where the angles associated with small_curve_angles will be returned. Angles returned are in the same order as the ids returned in small_curve_angles.
upper_bound	Upper threshold angle
lower_bound	Lower threshold angle

◆ get_sharp_surface_angles()

void get_sharp_surface_angles	(	std::vector< int >	target_volume_ids,
		std::vector< int > &	returned_large_surface_angles,
		std::vector< int > &	returned_small_surface_angles,
		std::vector< double > &	returned_large_angles,
		std::vector< double > &	returned_small_angles,
		double	upper_bound,
		double	lower_bound
	)

Get the list of sharp surface angles for a list of volumes.

'Sharp' is a function of the upper_bound and lower_bound threshold parameters. The id of surfaces are returned when any angle associated with a surface is less than the lower_bound or greater than the upper_bound.

Parameters

target_volume_ids	List of volume ids to examine.
large_surface_angles	User specified list where the ids of surfaces with large angles will be returned
small_surface_angles	User specified list where the ids of surfaces with small angles will be returned
large_angles	User specified list where the angles associated with large_surface_angles will be returned. Angles returned are in the same order as the ids returned in large_surface_angles.
small_angles	User specified list where the angles associated with small_surface_angles will be returned. Angles returned are in the same order as the ids returned in small_surface_angles.
upper_bound	Upper threshold angle
lower_bound	Lower threshold angle

◆ get_sideset_children()

void get_sideset_children	(	int	sideset_id,
		std::vector< int > &	returned_face_list,
		std::vector< int > &	returned_surface_list,
		std::vector< int > &	returned_curve_list
	)

get lists of any and all possible children of a sideset

A nodeset can contain a variety of entity types. This routine will return all contents of a specified sideset.

Parameters

sideset_id	User specified id of the desired sideset
face_list	User specified list where faces associated with this sideset are returned
surface_list	User specified list where surfaces associated with this sideset are returned
curve_list	User specified list where curves associated with this sideset are returned

◆ get_sideset_count()

int get_sideset_count ( )

Get the current number of sidesets.

Returns: The number of sidesets in the current model, if any

◆ get_sideset_curves()

std::vector< int > get_sideset_curves ( int sideset_id )

Get a list of curve ids associated with a specific sideset.

Parameters

sideset_id User specified id of the desired sideset

Returns: A list (python tuple) of curve ids contained in the sideset

◆ get_sideset_edges()

std::vector< int > get_sideset_edges ( int sideset_id )

Get a list of any quads in a sideset.

A sideset can contain edge elements. This function will return those edge elements if they exist. An empty list will be returned if there are no edges in the sideset.

Parameters

sideset_id User specified id of the desired sideset

Returns: A list (python tuple) of the edges in the sideset

◆ get_sideset_element_type()

std::string get_sideset_element_type ( int sideset_id )

Get the element type of a sideset.

Parameters

sideset_id The id of the sideset to be queried

Returns: Element type

◆ get_sideset_id_list()

std::vector< int > get_sideset_id_list ( )

Get a list of all sidesets.

Returns: List (python tuple) of all active sideset ids

◆ get_sideset_id_list_for_bc()

std::vector< int > get_sideset_id_list_for_bc	(	CI_BCTypes	bc_type_enum,
		int	bc_id
	)

Get a list of all sidesets the specified bc is applied to.

Parameters

bc_type_in	Type of bc to query, as defined by enum CI_BCTypes. 1-9 is FEA, 10-30 is CFD
bc_id	ID of the bc to query

Returns: A list (python tuple) of sideset ID's associated with that bc

◆ get_sideset_quads()

std::vector< int > get_sideset_quads ( int sideset_id )

Get a list of any quads in a sideset.

A sideset can contain quadrilateral elements.
This function will return those quad elements if they exist. An empty list will be returned if there are no quads in the sideset.

Parameters

sideset_id User specified id of the desired sideset

Returns: A list (python tuple) of the quads in the sideset

◆ get_sideset_surfaces()

std::vector< int > get_sideset_surfaces ( int sideset_id )

Get a list of any surfaces in a sideset.

A sideset can contain surfaces. This function will return those surfaces if they exist. An empty list will be returned if there are no surfaces in the sideset.

Parameters

sideset_id User specified id of the desired sideset

Returns: A list (python tuple) of the surfaces defining the sideset

◆ get_similar_curves()

std::vector< int > get_similar_curves	(	std::vector< int >	curve_ids,
		double	tol = `1e-3`,
		bool	use_percent_tol = `true`,
		bool	on_similar_vols = `true`
	)

Get similar curves with the same length.

Parameters

curve_ids	IDs of curve to compare against
tol	tolerance for comparison
use_percent_tol	tolerance is a percentage (0-1) of length, otherwise absolute length
on_similar_vols	check only curves on volumes that are similar to the curve_ids' owning volume(s)

Returns: list of IDs of similar curves

◆ get_similar_surfaces()

std::vector< int > get_similar_surfaces	(	std::vector< int >	surface_ids,
		double	tol = `1e-3`,
		bool	use_percent_tol = `true`,
		bool	on_similar_vols = `true`
	)

Get similar surfaces with the same area and number of curves.

Parameters

surface_ids	IDs of surface to compare against
tol	tolerance for comparison
use_percent_tol	tolerance is a percentage (0-1) of area, otherwise absolute area
on_similar_vols	check only surfaces on volumes that are similar to the surface_ids' owning volume(s)

Returns: list of IDs of similar surfaces

◆ get_similar_volumes()

std::vector< int > get_similar_volumes	(	std::vector< int >	volume_ids,
		double	tol = `1e-3`,
		bool	use_percent_tol = `true`
	)

Get similar volumes with the same volume and number of faces.

Parameters

volume_ids	IDs of volume(s) to compare against //!
tol	tolerance for comparison
use_percent_tol	tolerance is a percentage (0-1) of volume, otherwise absolute volume

Returns: list of IDs of similar volumes

◆ get_sizing_function_name()

std::string get_sizing_function_name	(	const std::string &	entity_type,
		int	surface_id
	)

Get the sizing function name for a surface or volume.

Parameters

entity_type	Type (volume or surface)
entity_id	Id of the entity

Returns: The sizing function name (constant, curvature, interval, inverse, linear, super, test, exodus, none)

◆ get_small_and_narrow_surfaces()

std::vector< int > get_small_and_narrow_surfaces	(	std::vector< int >	target_ids,
		double	small_area,
		double	small_curve_size
	)

Get the list of small or narrow surfaces from a list of volumes.

Parameters

target_volume_ids	List of volume ids to examine.
small_area	Indicate the area threshold
small_curve_size	Indicate size for 'narrowness'

Returns: List (python tuple) of small or narrow surface ids

◆ get_small_curves()

std::vector< int > get_small_curves	(	std::vector< int >	target_volume_ids,
		double	mesh_size
	)

Get the list of small curves for a list of volumes.

'Small' is a function of the mesh_size passed into the routine. The mesh_size parameter will act as the threshold for determining what 'small' is. A small entity is one that has an edge length smaller than mesh_size.

Parameters

target_volume_ids	List of volume ids to examine. in Cubit is valid as input here.
mesh_size	Indicate the mesh size used as the threshold

Returns: List (python tuple) of small curve ids

◆ get_small_radius_blend_surfaces()

std::vector< int > get_small_radius_blend_surfaces	(	std::vector< int >	target_volume_ids,
		double	max_radius
	)

Get the list of blend surfaces for a list of volumes that have a radius of curvature smaller than max_radius.

Parameters

target_volume_ids List of volume ids to examine. max_radius maximum radius of curvature for which blend surfaces will be returned if max_radius = 0, then all blend surfaces will be returned.

Returns: List (python tuple) of blend surface ids

◆ get_small_surfaces()

std::vector< int > get_small_surfaces	(	std::vector< int >	target_volume_ids,
		double	mesh_size
	)

Get the list of small surfaces for a list of volumes.

'Small' is a function of the mesh_size passed into the routine. The mesh_size parameter will act as the threshold for determining what 'small' is. A small entity is one that has an edge length smaller than mesh_size.

Parameters

target_volume_ids	List of volume ids to examine.
mesh_size	Indicate the mesh size used as the threshold

Returns: List (python tuple) of small surface ids

◆ get_small_surfaces_HR()

std::vector< int > get_small_surfaces_HR	(	std::vector< int >	target_volume_ids,
		double	mesh_size
	)

Python callable version Get the list of small hydraulic radius surfaces for a list of volumes.

'Small' is a function of the mesh_size passed into the routine. The mesh_size parameter will act as the threshold for determining what 'small' is. A small entity is one that has an edge length smaller than mesh_size.

Parameters

target_volume_ids	List of volume ids to examine.
mesh_size	Indicate the mesh size used as the threshold

Returns: return the list of small hydraulic radius surfaces (same as returned_small_surfaces)

◆ get_small_surfaces_hydraulic_radius()

void get_small_surfaces_hydraulic_radius	(	std::vector< int >	target_volume_ids,
		double	mesh_size,
		std::vector< int > &	returned_small_surfaces,
		std::vector< double > &	returned_small_radius
	)

Get the list of small hydraulic radius surfaces for a list of volumes.

'Small' is a function of the mesh_size passed into the routine. The mesh_size parameter will act as the threshold for determining what 'small' is. A small entity is one that has an edge length smaller than mesh_size.

Parameters

target_volume_ids	List of volume ids to examine.
mesh_size	Indicate the mesh size used as the threshold
returned_small_surfaces	ids of small hydraulic radius surfaces will be returned
returned_small_radius	User The hydrualic radius of each small surface will be returned. The order of the radius values is the same as the order of the returned ids.

Returns: return the list of small hydraulic radius surfaces (same as returned_small_surfaces)

◆ get_small_volumes()

std::vector< int > get_small_volumes	(	std::vector< int >	target_volume_ids,
		double	mesh_size
	)

Get the list of small volumes from a list of volumes.

'Small' is a function of the mesh_size passed into the routine. The mesh_size parameter will act as the threshold for determining what 'small' is. volumes with volume < 10*mesh_size^3 will be returned.

Parameters

target_volume_ids	List of volume ids to examine.
mesh_size	Indicate the mesh size used as the threshold

Returns: List (python tuple) of small volume ids

◆ get_small_volumes_hydraulic_radius()

void get_small_volumes_hydraulic_radius	(	std::vector< int >	target_volume_ids,
		double	mesh_size,
		std::vector< int > &	returned_small_volumes,
		std::vector< double > &	returned_small_radius
	)

Get the list of small hydraulic radius volumes for a list of volumes.

'Small' is a function of the mesh_size passed into the routine. The mesh_size parameter will act as the threshold for determining what 'small' is. A small entity is one that has an edge length smaller than mesh_size.

Parameters

target_volume_ids	List of volume ids to examine.
mesh_size	Indicate the mesh size used as the threshold
small_volumes	User specified list where the ids of small volumes will be returned
small_radius	User specified list where the radius of each small volume will be returned. The order of the radius values is the same as the order of the returned ids.

◆ get_smallest_curves()

std::vector< int > get_smallest_curves	(	std::vector< int >	target_volume_ids,
		int	number_to_return
	)

Get a list of the smallest curves in the list of volumes. The number returned is specified by 'num_to_return'.

Parameters

target_volume_ids	List of volume ids to examine. in Cubit is valid as input here.
num_to_return	Indicate the number of curves to return

Returns: List (python tuple) of smallest curve ids

◆ get_smallest_features()

void get_smallest_features	(	std::vector< int >	target_ids,
		int &	returned_number_to_return,
		std::vector< int > &	returned_type_1_list,
		std::vector< int > &	returned_type_2_list,
		std::vector< int > &	returned_id_1_list,
		std::vector< int > &	returned_id_2_list,
		std::vector< double > &	returned_distance_list
	)

Finds all of the smallest features.

Parameters

target_ids	The entities to query
num_to_return	number of small features to return
type1_list
type2_list
id1_list
id2_list
distance_list

◆ get_smooth_scheme()

std::string get_smooth_scheme	(	const std::string &	geometry_type,
		int	entity_id
	)

Get the smooth scheme for a specified entity.

std::string smooth_scheme;

CubitInterface::get_smooth_scheme ("curve" , 122, smooth_scheme);

CubitInterface::get_smooth_scheme

std::string get_smooth_scheme(const std::string &geometry_type, int entity_id)

Get the smooth scheme for a specified entity.

smooth_scheme = cubit.get_smooth_scheme("curve" , 122)

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

Returns: The smooth scheme associated with the entity

◆ get_solutions_for_bad_geometry()

std::vector< std::vector< std::string > > get_solutions_for_bad_geometry	(	std::string	geom_type,
		int	geom_id
	)

Get lists of display strings and command strings for bad geometry.

Parameters

geom_type	"curve", "surface", "volume" or "body"
geom_id	ID of geometry entity

Returns: Vector of three string vectors. Vector 1 will contain display strings to be shown to users. Vector 2 will contain Cubit command strings. This second set of strings may contain concatenated strings delimited by ';'. In other words, one instance of command string may in fact contain multiple commands separated by the ';' sequence. Vector 3 will contain Cubit preview strings. Note: If using this function in python, returned vectors will be python tuples.

◆ get_solutions_for_blends()

std::vector< std::vector< std::string > > get_solutions_for_blends ( int surface_id )

Get the solution list for a given blend surface.

Parameters

surface_id	the surface being queried
max_radius	the maximum radius of curvature for which solutions will be returned max_radius=-1 will return solutions for any blend

Returns: Vector of three string vectors. Vector 1 will contain display strings to be shown to users. Vector 2 will contain Cubit command strings. Vector 3 will contain Cubit preview strings. Note: If using python, vectors will be python tuples.

◆ get_solutions_for_cavity_surface()

std::vector< std::vector< std::string > > get_solutions_for_cavity_surface ( int surface_id )

Get the solution list for a given cavity surface.

Parameters

surface_id the surface being queries

Returns: Vector of three string vectors. Vector 1 will contain display strings to be shown to users. Vector 2 will contain Cubit command strings. Vector 3 will contain Cubit preview strings. Note: If using python, vectors will be python tuples.

◆ get_solutions_for_classified_surface()

std::vector< std::vector< std::string > > get_solutions_for_classified_surface	(	std::string	classification,
		int	surf_id
	)

Get lists of display, preview and command strings for a classified surface.

◆ get_solutions_for_classified_volume()

std::vector< std::vector< std::string > > get_solutions_for_classified_volume	(	std::string	classification,
		int	vol_id
	)

Get lists of display, preview and command strings for a classified volume.

Parameters

classification	string defining the classification type: "bolt", "nut", "washer", "spring", "ball", "race", "pin", "gear", "insert", "other"
vol_id

Returns: Vector of three string vectors. Vector 1 will contain display strings to be shown to users. Vector 2 will contain Cubit command strings. Vector 3 will contain Cubit preview strings. Vector 4 will contain operation strings for machine learning Note: If using this function in python, returned vectors will be python tuples.

◆ get_solutions_for_close_loop()

std::vector< std::vector< std::string > > get_solutions_for_close_loop	(	int	surface_id,
		double	mesh_size
	)

Get the solution list for a given close loop surface.

Parameters

surface_id	the surface being queried
mesh_size	Indicate size for 'narrowness'

Returns: Vector of three string vectors. Vector 1 will contain display strings to be shown to users. Vector 2 will contain Cubit command strings. Vector 3 will contain Cubit preview strings. Note: If using python, vectors will be python tuples.

◆ get_solutions_for_cone_surface()

std::vector< std::vector< std::string > > get_solutions_for_cone_surface ( int surface_id )

Get lists of display, preview and command strings for surfaces with defined as cones.

Parameters

surface_id cone surface

◆ get_solutions_for_decomposition()

std::vector< std::vector< std::string > > get_solutions_for_decomposition	(	const std::vector< int > &	volume_list,
		double	exterior_angle,
		bool	do_imprint_merge,
		bool	tolerant_imprint
	)

Get the list of possible decompositions.

Parameters

volume_list	List of volumes to query
exterior_angle	Threshold value for the exterior angle
do_imprint_merge	Set to true (1) if you want the imprint and merge to be done
tol_imprint	Set to true (1) if you want to do a tolerant imprint

◆ get_solutions_for_forced_sweepability()

std::vector< std::vector< std::string > > get_solutions_for_forced_sweepability	(	int	volume_id,
		std::vector< int > &	source_surface_id_list,
		std::vector< int > &	target_surface_id_list,
		double	small_curve_size = `-1.0`
	)

This function only works from C++ Get lists of display strings and command strings for forced sweepability solutions

Parameters

volume_id id of volume source_surface_id_list list of source surface ids target_surface_id_list list of target surface ids small_curve_size optional paramtere to specify small curve size

Returns: Vector of two string vectors. Vector 1 will contain display strings to be shown to users. Vector 2 will contain Cubit command strings. Vector 3 will contain Cubit preview strings. Note: If using this function in python, returned vectors will be python tuples.

◆ get_solutions_for_imprint_merge()

std::vector< std::vector< std::string > > get_solutions_for_imprint_merge	(	int	surface_id1,
		int	surface_id2
	)

Get lists of display strings and command strings for imprint/merge solutions.

Parameters

surface_id1 overlapping surface 1 surface_id2 overlapping surface 2

Returns: Vector of three string vectors. Vector 1 will contain display strings to be shown to users. Vector 2 will contain Cubit command strings. This second set of strings may contain concatenated strings delimited by ';'. In other words, one instance of command string may in fact contain multiple commands separated by the ';' sequence. Vector 3 will contain Cubit preview strings. Note: If using this function in python, returned vectors will be python tuples.

◆ get_solutions_for_near_coincident_vertex_and_curve()

std::vector< std::vector< std::string > > get_solutions_for_near_coincident_vertex_and_curve	(	int	vertex_id,
		int	curve_id
	)

Get lists of display strings and command strings for near coincident vertices and curves.

Parameters

vertex_id	ID of the vertex
curve_id	ID of the curve

Returns: Vector of three string vectors. Vector 1 will contain display strings to be shown to users. Vector 2 will contain Cubit command strings. This second set of strings may contain concatenated strings delimited by ';'. In other words, one instance of command string may in fact contain multiple commands separated by the ';' sequence. Vector 3 will contain Cubit preview strings. Note: If using this function in python, returned vectors will be python tuples.

◆ get_solutions_for_near_coincident_vertex_and_surface()

std::vector< std::vector< std::string > > get_solutions_for_near_coincident_vertex_and_surface	(	int	vertex_id,
		int	surface_id
	)

Get lists of display strings and command strings for near coincident vertices and surfaces.

Parameters

vertex_id	ID of the vertex
surface_id	ID of the surface

Returns: Vector of three string vectors. Vector 1 will contain display strings to be shown to users. Vector 2 will contain Cubit command strings. This second set of strings may contain concatenated strings delimited by ';'. In other words, one instance of command string may in fact contain multiple commands separated by the ';' sequence. Vector 3 will contain Cubit preview strings. Note: If using this function in python, returned vectors will be python tuples.

◆ get_solutions_for_near_coincident_vertices()

std::vector< std::vector< std::string > > get_solutions_for_near_coincident_vertices	(	int	vertex_id_1,
		int	vertex_id_2
	)

Get lists of display strings and command strings for near coincident vertices.

Parameters

target_vertex_ids	Vertex list
high_tolerance	The upper threshold tolerance value

Returns: Vector of three string vectors. Vector 1 will contain display strings to be shown to users. Vector 2 will contain Cubit command strings. This second set of strings may contain concatenated strings delimited by ';'. In other words, one instance of command string may in fact contain multiple commands separated by the ';' sequence. Vector 3 will contain Cubit preview strings. Note: If using this function in python, returned vectors will be python tuples.

◆ get_solutions_for_overlapping_surfaces()

std::vector< std::vector< std::string > > get_solutions_for_overlapping_surfaces	(	int	surface_id_1,
		int	surface_id_2
	)

Get lists of display strings and command strings for overlapping surfaces.

Parameters

id	of surface 1
id	of surface 2

Returns: Vector of three string vectors. Vector 1 will contain display strings to be shown to users. Vector 2 will contain Cubit command strings. This second set of strings may contain concatenated strings delimited by ';'. In other words, one instance of command string may in fact contain multiple commands separated by the ';' sequence. Vector 3 will contain Cubit preview strings. Note: If using this function in python, returned vectors will be python tuples.

◆ get_solutions_for_overlapping_volumes()

std::vector< std::vector< std::string > > get_solutions_for_overlapping_volumes	(	int	volume_id_1,
		int	volume_id_2,
		double	maximum_gap_tolerance,
		double	maximum_gap_angle
	)

Get lists of display strings and command strings for overlapping volumes.

Parameters

id	of volume 1
id	of volume 2

Returns: Vector of three string vectors. Vector 1 will contain display strings to be shown to users. Vector 2 will contain Cubit command strings. This second set of strings may contain concatenated strings delimited by ';'. In other words, one instance of command string may in fact contain multiple commands separated by the ';' sequence. Vector 3 will contain Cubit preview strings. Note: If using this function in python, returned vectors will be python tuples.

◆ get_solutions_for_sharp_angle_vertex()

std::vector< std::vector< std::string > > get_solutions_for_sharp_angle_vertex	(	int	vertex_id,
		double	small_curve_size,
		double	mesh_size
	)

Get lists of display, preview and command strings for sharp angle solutions.

Parameters

vertex_id	vertex with sharp angle
small_curve_size	Threshold value used to determine what 'small' is
mesh_size	Element size of the model

Returns: Vector of three string vectors. Vector 1 will contain display strings to be shown to users. Vector 2 will contain Cubit command strings. Vector 3 will contain Cubit preview strings. Vector 4 will contain operation strings for machine learning Note: If using this function in python, returned vectors will be python tuples.

◆ get_solutions_for_sheet_volume_connection()

std::vector< std::vector< std::string > > get_solutions_for_sheet_volume_connection	(	std::vector< int >	vol1_sheets,
		std::vector< int >	vol2_sheets,
		double	thickness1,
		double	thickness2,
		std::string	close_type = `""`,
		int	close_id = `0`
	)

Get lists of display, preview and command strings for two neighboring sheet volume sets. each set should be part of a common parent 3D volume.

Parameters

vol1_sheets	volume IDs of sheet volumes with common solid parent
vol2_sheets	volume IDs of sheet volumes with common solid parent
thickness1	thickness of sheet volumes in vol_sheets1
thickness2	thickness of sheet volumes in vol_sheets2
close_type	optional limit solutions close to entity with type and ID
close_id	optional limit solutions close to entity with type and ID tolerance of near_location. Default will return all solutions

◆ get_solutions_for_sheet_volumes()

std::vector< std::vector< std::string > > get_solutions_for_sheet_volumes	(	std::vector< int >	vol_ids,
		std::vector< double >	thickness
	)

Get lists of display, preview and command strings to connect sheet bodies.

◆ get_solutions_for_small_curves()

std::vector< std::vector< std::string > > get_solutions_for_small_curves	(	int	curve_id,
		double	small_curve_size,
		double	mesh_size
	)

Get lists of display, preview and command strings for small curve solutions.

Parameters

curve_id	Small curve
small_curve_size	Threshold value used to determine what 'small' is
mesh_size	Element size of the model

Returns: Vector of three string vectors. Vector 1 will contain display strings to be shown to users. Vector 2 will contain Cubit command strings. Vector 3 will contain Cubit preview strings. Vector 4 will contain operation strings for machine learning Note: If using this function in python, returned vectors will be python tuples.

◆ get_solutions_for_small_surfaces()

std::vector< std::vector< std::string > > get_solutions_for_small_surfaces	(	int	surface_id,
		double	small_curve_size,
		double	mesh_size
	)

Get lists of display, preview and command strings for small surface solutions.

Parameters

surface_id	Small surface
small_curve_size	Threshold value used to determine what 'small' is
mesh_size	Element size of the model

Returns: Vector of three string vectors. Vector 1 will contain display strings to be shown to users. Vector 2 will contain Cubit command strings. Vector 3 will contain Cubit preview strings. Vector 4 will contain operation strings for machine learning Note: If using this function in python, returned vectors will be python tuples.

◆ get_solutions_for_source_target()

bool get_solutions_for_source_target	(	int	volume_id,
		std::vector< std::vector< int > > &	feasible_source_surface_id_list,
		std::vector< std::vector< int > > &	feasible_target_surface_id_list,
		std::vector< std::vector< int > > &	infeasible_source_surface_id_list,
		std::vector< std::vector< int > > &	infeasible_target_surface_id_list
	)

Get a list of suggested sources and target surface ids given a specified volume.

◆ get_solutions_for_surfaces_with_narrow_regions()

std::vector< std::vector< std::string > > get_solutions_for_surfaces_with_narrow_regions	(	int	surface_id,
		double	small_curve_size,
		double	mesh_size
	)

Get lists of display, preview and command strings for surfaces with narrow regions solutions.

Parameters

surface_id	Small surface
small_curve_size	Threshold value used to determine what 'small' is
mesh_size	Element size of the model

Returns: Vector of three string vectors. Vector 1 will contain display strings to be shown to users. Vector 2 will contain Cubit command strings. Vector 3 will contain Cubit preview strings. Note: If using this function in python, returned vectors will be python tuples.

◆ get_solutions_for_thin_volume()

std::vector< std::vector< std::string > > get_solutions_for_thin_volume	(	int	vol_id,
		std::vector< int >	near_vols,
		bool	include_weights = `false`,
		bool	include_type = `false`
	)

Get lists of display, preview and command strings for a volume to reduce to shell.

Parameters

vol_id	solutions will be returned for this volume
near_vols	limit influence to these volumes. If empty, will use all
include_weights	include the heuristic weights with the operation string (1=best, 0=worst)
include_type	include the connection type in the operation string long_long = 4, continuous = 3, midsurface = 2, copy = 1

◆ get_solutions_for_volumes()

std::vector< std::vector< std::string > > get_solutions_for_volumes	(	int	vol_id,
		double	small_curve_size,
		double	mesh_size
	)

Get lists of display, preview and command strings for small volume solutions.

Parameters

vol_id
small_curve_size	Threshold value used to determine what 'small' is
mesh_size	Element size of the model

Returns: Vector of three string vectors. Vector 1 will contain display strings to be shown to users. Vector 2 will contain Cubit command strings. Vector 3 will contain Cubit preview strings. Vector 4 will contain operation strings for machine learning Note: If using this function in python, returned vectors will be python tuples.

◆ get_source_surfaces()

std::vector< int > get_source_surfaces ( int volume_id )

Get a list of a volume's sweep source surfaces.

Parameters

volume_id Specifies the volume id

Returns: List (python tuple) of surface ids

◆ get_sphere_count()

int get_sphere_count ( )

Get the count of sphere elements in the model.

Returns: The number of spheres in the model

◆ get_sphere_global_element_id()

int get_sphere_global_element_id ( int edge_id )

Given a sphere id, return the global element id.

int gid = CubitInterface::get_sphere_global_element_id (22);

CubitInterface::get_sphere_global_element_id

int get_sphere_global_element_id(int edge_id)

Given a sphere id, return the global element id.

Parameters

sphere_id Specifies the id of the sphere

Returns: The corresponding element id

◆ get_string_sculpt_default()

std::string get_string_sculpt_default ( const char * variable )

◆ get_sub_elements()

std::vector< int > get_sub_elements	(	const std::string &	entity_type,
		int	entity_id,
		int	dimension
	)

Get the lower dimesion entities associated with a higher dimension entities. For example get the faces associated with a hex or the edges associated with a tri.

std::vector<int> face_id_list;

face_id_list = CubitInterface::get_sub_elements ("hex" , 221, 2);

CubitInterface::get_sub_elements

std::vector< int > get_sub_elements(const std::string &entity_type, int entity_id, int dimension)

Get the lower dimesion entities associated with a higher dimension entities. For example get the face...

face_id_list = cubit.get_sub_elements("hex" , 221, 2)

Parameters

entity_type	The mesh element type of the higher dimension entity
entity_id	The mesh element id
dimension	The dimension of the desired sub entities

Returns: List (python tuple) of ids of the desired dimension

◆ get_submap_corner_types()

std::vector< std::pair< int, int > > get_submap_corner_types ( int surface_id )

Get a list of vertex ids and the corresponding corner vertex types if the surface were defined as submap surface. There are no side affects. This does not actually assign corner types or change the underlying mesh scheme of the surface.

Parameters

the	id of the surface

Returns: a vector of pairs of <id, corner_type> The corner_types are defined as follows

UNSET_TYPE = -1, END_TYPE = 1, SIDE_TYPE, CORNER_TYPE, REVERSAL_TYPE, TRIANGLE_TYPE, NON_TRIANGLE_TYPE };

◆ get_surface_area()

double get_surface_area ( int surface_id )

Get the area of a surface.

Parameters

surface_id ID of the surface

Returns: Area of the surface

◆ get_surface_cavity_collections()

std::vector< std::vector< int > > get_surface_cavity_collections	(	const std::vector< int > &	volume_list,
		double	hr_threshold,
		double	area_threshold,
		std::vector< double > &	return_cavity_hrs,
		std::vector< double > &	return_cavity_areas
	)

Returns the collections of surfaces that comprise holes or cavities in the specified volumes. Filter by hydarulic radius and area of the cavity.

Parameters

volume_list	List of volumes to query
hr_threshold	return cavities with computed hydraulic radius less than hr_threshold. Where hr = 4*Area/Perimeter. Use hr_threshold < 0.0 to return all cavities
area_threshold	return cavities with computed surface area less than area_threshold. Use area_threshold < 0.0 to return all cavities
return	a vector of cavity areas corresponding to the return cavity id lists

Returns: A list of lists of surface id's grouped by their individual cavity or hole

◆ get_surface_centroid()

std::array< double, 3 > get_surface_centroid ( int surface_id )

Get the surface centroid for a specified surface.

Parameters

surface_id ID of the surface

Returns: surface centroid

◆ get_surface_count()

int get_surface_count ( )

Get the current number of surfaces.

Returns: The number of surfaces in the current model, if any

◆ get_surface_element_count()

int get_surface_element_count ( int surface_id )

Get the count of elements in a surface.

Returns: The number of quads, and triangles in a surface. NOTE: This count does not distinguish between elements which have been put into a block or not.

◆ get_surface_hole_collections()

std::vector< std::vector< int > > get_surface_hole_collections	(	const std::vector< int > &	volume_list,
		double	radius_threshold,
		std::vector< double > &	return_hole_radius
	)

Returns the collections of surfaces that comprise holes in the specified volumes. Filter by radius of the hole.

Parameters

volume_list	List of volumes to query
radius_threshold	return holes with computed radius less than or equal to radius_threshold.
return	a vector of hole radii corresponding to the return hole id lists

Returns: A list of lists of surface id's grouped by their individual hole

◆ get_surface_loop_nodes()

std::vector< std::vector< int > > get_surface_loop_nodes ( int surface_id )

get the ordered list of nodes on the loops of this surface

Parameters

surface_id User specified id of the desired surface

Returns: A list of lists (python tuple of tuples) one list per loop first loop is the external

◆ get_surface_nodes()

std::vector< int > get_surface_nodes ( int surface_id )

Get list of node ids owned by a surface.
Excludes nodes owned by bounding curves and verts.

int surf_id = 5;

vector<int> surface_nodes = CubitInterface::get_surface_nodes (surface_id);

CubitInterface::get_surface_nodes

std::vector< int > get_surface_nodes(int surface_id)

Get list of node ids owned by a surface. Excludes nodes owned by bounding curves and verts.

Parameters

surf_id id of surface

Returns: List (python tuple) of IDs of nodes owned by the surface

◆ get_surface_normal()

std::array< double, 3 > get_surface_normal ( int surface_id )

Get the surface normal for a specified surface.

Parameters

surface_id ID of the surface

Returns: surface normal at the center

◆ get_surface_normal_at_coord()

std::array< double, 3 > get_surface_normal_at_coord	(	int	surface_id,
		std::array< double, 3 >
	)

Get the surface normal for a specified surface at a location.

Parameters

surface_id	ID of the surface
coord	array of x,y,z location on surface

Returns: surface normal at coord

◆ get_surface_num_loops()

int get_surface_num_loops ( int surface_id )

get the number of loops on the surface

Parameters

surface_id User specified id of the desired surface

Returns: number of loops on the surface

◆ get_surface_principal_curvatures()

std::vector< double > get_surface_principal_curvatures ( int surface_id )

Get the principal curvatures of a surface at surface mid_point.

Parameters

surface_id ID of the surface

Returns: two scalars that are the principal curvatures at midpoint

◆ get_surface_quads()

std::vector< int > get_surface_quads ( int surface_id )

get the list of any quad elements on a given surface

Parameters

surface_id User specified id of the desired surface

Returns: A list (python tuple) of the quad ids on the surface

◆ get_surface_sense()

std::string get_surface_sense ( int surface_id )

Get the surface sense for a specified surface.

Parameters

surface_id ID of the surface

Returns: surface sense as "Reversed" or "Forward" or "Both"

◆ get_surface_tris()

std::vector< int > get_surface_tris ( int surface_id )

get the list of any tri elements on a given surface

Parameters

surface_id User specified id of the desired surface

Returns: A list (python tuple) of the tri ids on the surface

◆ get_surface_type()

std::string get_surface_type ( int surface_id )

Get the surface type for a specified surface.

Parameters

surface_id ID of the surface

Returns: Type of surface

◆ get_surfs_with_narrow_regions()

std::vector< int > get_surfs_with_narrow_regions	(	std::vector< int >	target_ids,
		double	narrow_size
	)

Get the list of surfaces with narrow regions.

Parameters

target_volume_ids	List of volume ids to examine.
narrow_size	Indicate the size that defines 'narrowness'

Returns: List (python tuple) of surface ids

◆ get_tangential_intersections()

std::vector< int > get_tangential_intersections	(	std::vector< int >	target_volume_ids,
		double	upper_bound,
		double	lower_bound
	)

Get the list of bad tangential intersections for a list of volumes.

'Bad' is a function of the upper_bound and lower_bound threshold parameters. The id of surfaces are returned when any tangential angle associated with a surface is less than the lower_bound or greater than the upper_bound.

Parameters

target_volume_ids	List of volume ids to examine.
upper_bound	Upper threshold angle
lower_bound	Lower threshold angle

Returns: List (python tuple) of surface ids associated with bad tangential angles

◆ get_target_surfaces()

std::vector< int > get_target_surfaces ( int volume_id )

Get a list of a volume's sweep target surfaces.

Parameters

volume_id Specifies the volume id

Returns: List (python tuple) of surface ids

◆ get_target_timestep()

double get_target_timestep ( )

Returns the target timestep threshold used in the timestep density multiplier metric.

◆ get_tet_count()

int get_tet_count ( )

Get the count of tets in the model.

Returns: The number of tets in the model

◆ get_tet_global_element_id()

int get_tet_global_element_id ( int tet_id )

Given a tet id, return the global element id.

int gid = CubitInterface::get_tet_global_element_id (22);

CubitInterface::get_tet_global_element_id

int get_tet_global_element_id(int tet_id)

Given a tet id, return the global element id.

Parameters

tet_id Specifies the id of the tet

Returns: The corresponding element id

◆ get_tetmesh_growth_factor()

double get_tetmesh_growth_factor ( int volume_id )

Get the tetmesh growth factor.

Returns: the volume growth factor

◆ get_tetmesh_insert_mid_nodes()

bool get_tetmesh_insert_mid_nodes ( )

Get the state of the flag to insert midnodes during meshing. Global setting.

Returns: boolean - true if insert midnodes during meshing

◆ get_tetmesh_minimize_interior_points()

bool get_tetmesh_minimize_interior_points ( )

Get the state of the flag to minimize interior points in tetmesher. Global setting.

Returns: boolean - true if minimizing interior points during meshing

◆ get_tetmesh_minimize_slivers()

bool get_tetmesh_minimize_slivers ( )

Get the state of the flag to minimize sliver tets. Global setting.

Returns: boolean - true if minimizing sliver tets during meshing

◆ get_tetmesh_num_anisotropic_layers()

int get_tetmesh_num_anisotropic_layers ( )

Get the number of anisotropic tet layers. Global setting.

Returns: number of anisotropic layers (0 if not using anisotropy)

◆ get_tetmesh_optimization_level()

int get_tetmesh_optimization_level ( )

Get the optimization level for tetmeshing. Global setting.

Returns: integer from 1 to 6

◆ get_tetmesh_optimize_mid_nodes()

bool get_tetmesh_optimize_mid_nodes ( )

Get the state of the flag to optimize midnodes during meshing. Global setting.

Returns: boolean - true if optimize midnodes during meshing

◆ get_tetmesh_optimize_overconstrained_edges()

bool get_tetmesh_optimize_overconstrained_edges ( )

Get the state of the flag to optimize overconstrained edges. Global setting.

Returns: boolean - true if optimizing overconstrained edges during meshing

◆ get_tetmesh_optimize_overconstrained_tets()

bool get_tetmesh_optimize_overconstrained_tets ( )

Get the state of the flag to optimize overconstrained tets. Global setting.

Returns: boolean - true if optimizing overconstrained tets during meshing

◆ get_tetmesh_parallel()

bool get_tetmesh_parallel ( )

Get the parallel flag for tet meshing. Defines whether to use parallel mesher.

Returns: boolean value as to whether or not the parallel tet mesher is used

◆ get_tetmesh_proximity_flag()

bool get_tetmesh_proximity_flag ( int volume_id )

Get the proximity flag for tet meshing.

Parameters

volume_id the volume id

Returns: boolean value as to whether or not the proximity flag is set

◆ get_tetmesh_proximity_layers()

int get_tetmesh_proximity_layers ( int volume_id )

Get the number of proximity layers for tet meshing. This is the number of layers between close surfaces.

Parameters

volume_id the volume id

Returns: boolean value as to whether or not the proximity flag is set

◆ get_tetmesh_relax_surface_constraints()

bool get_tetmesh_relax_surface_constraints ( )

Get the state of the flag to relax surface mesh constraints in tetmesher. Global setting.

Returns: boolean - true if relaxing surface mesh constraints during meshing

◆ get_tight_bounding_box()

std::array< double, 15 > get_tight_bounding_box	(	const std::string &	geometry_type,
		std::vector< int >	entity_list
	)

Get the tight bounding box for a list of entities.

std::array<double> vector_list;

vector_list = CubitInterface::get_tight_bounding_box ("surface" , entity_list);

CubitInterface::get_tight_bounding_box

std::array< double, 15 > get_tight_bounding_box(const std::string &geometry_type, std::vector< int > entity_list)

Get the tight bounding box for a list of entities.

vector_list = cubit.get_tight_bounding_box("surface" , entity_list)

Parameters

geom_type	Specifies the geometry type of the entity
entity_list	List of ids associated with geom_type

Returns: A vector (python tuple) of coordinates and axis (0-2) center (3-5, 6-8, 9-11) u, v, x normalized coordinate axis of the box (12-14) length in u, v, w

◆ get_top_level_assembly_items()

std::vector< AssemblyItem > get_top_level_assembly_items ( )

◆ get_total_bounding_box()

std::array< double, 10 > get_total_bounding_box	(	const std::string &	geometry_type,
		std::vector< int >	entity_list
	)

Get the bounding box for a list of entities.

std::array<double,10> vector_list;

vector_list = CubitInterface::get_total_bounding_box ("surface" , entity_list);

CubitInterface::get_total_bounding_box

std::array< double, 10 > get_total_bounding_box(const std::string &geometry_type, std::vector< int > entity_list)

Get the bounding box for a list of entities.

vector_list = cubit.get_total_bounding_box("surface" , entity_list)

Parameters

geom_type	Specifies the geometry type of the entity
entity_list	List of ids associated with geom_type

Returns: An array of coordinates for the entity's bounding box. Ten (10) values will be returned. [ x-min, x-max, x-range, y-min, y-max, y-range, z-min, z-max, z-range, diagonal].

◆ get_total_volume()

double get_total_volume ( std::vector< int > volume_list )

Get the total volume for a list of volume ids.

Parameters

volume_list List of volume ids

Returns: The total volume of all volumes indicated in the id list

◆ get_tri_count()

int get_tri_count ( )

Get the count of tris in the model.

Returns: The number of tris in the model

◆ get_tri_global_element_id()

int get_tri_global_element_id ( int tri_id )

Given a tri id, return the global element id.

int gid = CubitInterface::get_tri_global_element_id (22);

CubitInterface::get_tri_global_element_id

int get_tri_global_element_id(int tri_id)

Given a tri id, return the global element id.

Parameters

tri_id Specifies the id of the tri

Returns: The corresponding element id

◆ get_trimesh_geometry_sizing()

bool get_trimesh_geometry_sizing ( )

Get the global geometry sizing flag for trimesher.

Returns: boolean - true if geometry sizing is on

◆ get_trimesh_num_anisotropic_layers()

int get_trimesh_num_anisotropic_layers ( )

Get the global number of anisotropic layers for trimeshing.

Returns: number of anistropic tri layers (0 if not using anisotropy)

◆ get_trimesh_ridge_angle()

double get_trimesh_ridge_angle ( )

Get the global setting for ridge angle in trimesher.

Returns: ridge angle

◆ get_trimesh_split_overconstrained_edges()

bool get_trimesh_split_overconstrained_edges ( )

Get the global setting for trimesher split over-constrained edges.

Returns: boolen - true if trimesher split over-constrained edges setting is on

◆ get_trimesh_surface_gradation()

double get_trimesh_surface_gradation ( )

Get the global surface mesh gradation set for meshing with MeshGems.

Returns: the surface gradation

◆ get_trimesh_target_min_size()

double get_trimesh_target_min_size	(	std::string	geom_type,
		int	entity_id
	)

Get the trimesh target min size for the entity. local setting for surfaces.

Returns: the target min size for entity ID

◆ get_trimesh_tiny_edge_length()

double get_trimesh_tiny_edge_length ( )

Get the global setting for tiny edge length in trimesher.

Returns: tiny edge length

◆ get_trimesh_volume_gradation()

double get_trimesh_volume_gradation ( )

Get the global volume mesh gradation set for meshing with MeshGems.

Returns: the volume gradation

◆ get_undo_enabled()

bool get_undo_enabled ( )

Query whether undo is currently enabled.

Returns: True if undo is enabled, otherwise false

◆ get_unmerged_curves_on_shells()

std::vector< int > get_unmerged_curves_on_shells	(	std::vector< int >	shell_vols,
		std::vector< double >	thickness
	)

return a list of curve IDs on the given shell volumes that are in proximity to one of the other shell volumes in the list

Parameters

shell_vols	list of volum IDs to check. Ignores any volumes that are not sheet volumes
thickness	list of thicknesses corresponding to volume IDs. Normally this is the designated thickness of each of the shell volumes. Length of thickness should be the same as shell_vols

Returns: list of curve IDs that meet the criteria

◆ get_valence()

int get_valence ( int vertex_id )

Get the valence for a specific vertex.

Parameters

vertex_id ID of vertex

◆ get_valid_block_element_types()

std::vector< std::string > get_valid_block_element_types ( int block_id )

Get a list of potential element types for a block.

Parameters

block_id The block id

Returns: List (python tuple) of potential element types

◆ get_velocity_combine_type()

std::string get_velocity_combine_type ( int entity_id )

Get the velocity's combine type which is "Overwrite", "Average", "SmallestCombine", or "LargestCombine".

Parameters

entity_id Id of the velocity

Returns: The combine type for the given velocity

◆ get_velocity_dof_signs()

const int * get_velocity_dof_signs ( int entity_id )

This function only available from C++ Get the velocity's dof signs

Parameters

entity_id Id of the velocity

Returns

◆ get_velocity_dof_values()

const double * get_velocity_dof_values ( int entity_id )

This function only available from C++ Get the velocity's dof values

Parameters

entity_id Id of the velocity

Returns

◆ get_version()

std::string get_version ( )

Get the Cubit version.

Returns: A string containing the current version of Cubit

◆ get_vertex_count()

int get_vertex_count ( )

Get the current number of vertices.

Returns: The number of vertices in the current model, if any

◆ get_vertex_node()

int get_vertex_node ( int vertex_id )

Get the node owned by a vertex.

int vert_id = 22;

int node_id = CubitInterface::get_vertex_node (vert_id);

CubitInterface::get_vertex_node

int get_vertex_node(int vertex_id)

Get the node owned by a vertex.

Parameters

vert_id id of vertex

Returns: ID of node owned by the vertex. returns -1 of doesn't exist

◆ get_vertex_type()

std::string get_vertex_type	(	int	surface_id,
		int	vertex_id
	)

Get the Vertex Types for a specified vertex on a specified surface. Vertex types include "side", "end", "reverse", "unknown".

Parameters

surface_id	Id of the surface associated with the vertex
vertex_id	Id of the vertex

Returns: The type – "side", "end", "reverse", or "unknown"

◆ get_view_at()

std::array< double, 3 > get_view_at ( )

Get the camera 'at' point.

Returns: The xyz coordinates of the camera's current position

◆ get_view_distance()

double get_view_distance ( )

Get the distance from the camera to the model (from - at)

Returns: Distance from the camera to the model

◆ get_view_from()

std::array< double, 3 > get_view_from ( )

Get the camera 'from' point.

Returns: The xyz coordinates of the camera's from position

◆ get_view_up()

std::array< double, 3 > get_view_up ( )

Get the camera 'up' direction.

Returns: The xyz coordinates of the camera's up direction

◆ get_vol_sphere_params()

bool get_vol_sphere_params	(	std::vector< int >	sphere_id_list,
		int &	rad_intervals,
		int &	az_intervals,
		double &	bias,
		double &	fract,
		int &	max_smooth_iterations
	)

get the current sphere parameters for a sphere volume

Parameters

sphere_id_list	list of volume ids (should be spheres)
rad_intervals	number of radial intervals (around circle)
az_intervals	number of intervals from inner mapped box to surface
bias	bias from inner mapped box to surface (<1 increases size to boundary)
fract	fraction of radius to use as size of interior mapped box
max_smooth_iterations	max number of smooth iterations to perform after meshing

◆ get_volume_area()

double get_volume_area ( int volume_id )

Get the area of a volume.

Parameters

volume_id ID of the volume

Returns: Area of the volume

◆ get_volume_count()

int get_volume_count ( )

Get the current number of nodesets.

Returns: The number of nodesets in the current model, if any

◆ get_volume_element_count()

int get_volume_element_count ( int volume_id )

Get the count of elements in a volume.

Returns: The number of hexes, tets, pyramids, and wedges in a volume. NOTE: This count does not distinguish between elements which have been put into a block or not.

◆ get_volume_gap_solutions()

std::vector< std::vector< std::string > > get_volume_gap_solutions	(	int	surface_id_1,
		int	surface_id_2
	)

Get lists of display strings and command strings for gaps

Parameters

id	of surface 1
id	of surface 2

Returns: Vector of three string vectors. Vector 1 will contain display strings to be shown to users. Vector 2 will contain Cubit command strings. This second set of strings may contain concatenated strings delimited by ';'. In other words, one instance of command string may in fact contain multiple commands separated by the ';' sequence. Vector 3 will contain Cubit preview strings. Note: If using this function in python, returned vectors will be python tuples.

◆ get_volume_gaps()

void get_volume_gaps	(	std::vector< int >	target_volume_ids,
		std::vector< int > &	returned_surface_list_1,
		std::vector< int > &	returned_surface_list_2,
		std::vector< double > &	returned_distance_list,
		std::vector< double > &	returned_overlap_area_list,
		double	maximum_gap_tolerance,
		double	maximum_gap_angle,
		int	cache_overlaps = `0`
	)

This function only works from C++ Get the list of gaps for a list of volumes

For every occurance of a gap, two surfaces ids are returned. Those ids are returned in the indicated lists and are aligned. In other words the first id in surf_list_1 overlaps with the first id in surf_list_2. The second id in surf_list_1 overlaps with the second id in surf_list-2, and so on.

Parameters

target_volume_ids	List of volume ids to examine.
surf_list_1	User specified list where the ids of the gap surfaces will be returned
surf_list_2	User specified list where the ids of the gap surfaces will be returned
distance_list	User specified list where the distance between the gap surface will be returned
max_gap_tolerance	User specified tolerance used to find the gaps.
cache_overlaps	speed up overlaps by caching and using previously computed results. Default 0 = no caching. 1 = clear out old values first. 2 = use and add to existing cache

◆ get_volume_hexes()

std::vector< int > get_volume_hexes ( int volume_id )

get the list of any hex elements in a given volume

Parameters

volume_id User specified id of the desired volume

Returns: A list (python tuple) of the hex ids in the volume

◆ get_volume_nodes()

std::vector< int > get_volume_nodes ( int volume_id )

Get list of node ids owned by a volume.
Excludes nodes owned by bounding surfs, curves and verts.

int vol_id = 1;

vector<int> volume_nodes = CubitInterface::get_volume_nodes (vol_id);

CubitInterface::get_volume_nodes

std::vector< int > get_volume_nodes(int volume_id)

Get list of node ids owned by a volume. Excludes nodes owned by bounding surfs, curves and verts.

Parameters

vol_id id of volume

Returns: List (python tuple) of IDs of nodes owned by the volume

◆ get_volume_pyramids()

std::vector< int > get_volume_pyramids ( int volume_id )

get the list of any pyramid elements in a given volume

Parameters

volume_id User specified id of the desired volume

Returns: A list (python tuple) of the pyramid ids in the volume

◆ get_volume_tets()

std::vector< int > get_volume_tets ( int volume_id )

get the list of any tet elements in a given volume

Parameters

volume_id User specified id of the desired volume

Returns: A list (python tuple) of the tet ids in the volume

◆ get_volume_volume()

double get_volume_volume ( int vol_id )

Get the volume of a volume.

Parameters

volume_id ID of the volume

Returns: volume

◆ get_volume_wedges()

std::vector< int > get_volume_wedges ( int volume_id )

get the list of any wedge elements in a given volume

Parameters

volume_id User specified id of the desired volume

Returns: A list (python tuple) of the wedge ids in the volume

◆ get_volumes_for_node()

std::vector< int > get_volumes_for_node	(	std::string	node_name,
		int	node_instance
	)

◆ get_wedge_count()

int get_wedge_count ( )

Get the count of wedge elements in the model.

Returns: The number of wedges in the model

◆ get_wedge_global_element_id()

int get_wedge_global_element_id ( int wedge_id )

Given a wedge id, return the global element id.

int gid = CubitInterface::get_wedge_global_element_id (22);

CubitInterface::get_wedge_global_element_id

int get_wedge_global_element_id(int wedge_id)

Given a wedge id, return the global element id.

Parameters

wedge_id Specifies the id of the wedge

Returns: The corresponding element id

◆ get_wrt_entity()

std::string get_wrt_entity	(	std::string	source_type,
		int	source_id,
		int	sideset_id
	)

Get the with-respect-to entity.

std::string wrt_entity;

wrt_entity = CubitInterface::get_wrt_entity ("face" , 332, 2);

CubitInterface::get_wrt_entity

std::string get_wrt_entity(std::string source_type, int source_id, int sideset_id)

Get the with-respect-to entity.

wrt_entity = cubit.get_wrt_entity("face" , 332, 2)

Parameters

source_type	Item type - could be 'face', 'quad' or 'tri'
source_id	ID of entity
sideset_id	ID of the sideset

Returns: 'with-respect-to' entity of the source_type/source_id in specified sideset

◆ group_list()

void group_list	(	std::vector< std::string > &	name_list,
		std::vector< int > &	returned_id_list
	)

Get the names and ids of all the groups (excluding the pick group) that are defined by the current cubit session.

Parameters

name_list	User specified list where the active group names will be returned
id_list	User specified list where the ids of all active groups will be returned

◆ group_names_ids()

std::vector< std::pair< std::string, int > > group_names_ids ( )

Get the names and ids of all the groups returned in a name/id structure that are defined by the current cubit session.

return A list of std::pair<std::string, int> structure instances

◆ has_valid_size()

int has_valid_size	(	const std::string &	geometry_type,
		int	entity_id
	)

Get whether an entity has a size. All entities have a size unless the auto sizing is off. If the auto sizing is off, an entity has a size only if it has been set.

◆ heatflux_is_on_shell_area()

bool heatflux_is_on_shell_area	(	CI_BCEntityTypes	bc_area_enum,
		int	entity_id
	)

Determine whether a BC heatflux is on a shell area.

Parameters

bc_area	enum of CI_BCEntityTypes. Use 7 to check if on top, 8 to check if on bottom
entity_id	Id of the BC

Returns: true if BC heatflux is on specified shell area, otherwise false

◆ highlight()

void highlight	(	const std::string &	entity_type,
		int	entity_id
	)

Highlight the given entity.

◆ init()

void init ( const std::vector< std::string > & argv )

Use init to initialize Cubit. Using a blank list as the input parameter is acceptable.

Parameters

argv	List of start-up directives. A blank list such as [''] will suffice. See Cubit Help for details

◆ is_acis_engine_available()

bool is_acis_engine_available ( )

◆ is_assembly_metadata_attached()

bool is_assembly_metadata_attached ( int volume_id )

Determine whether metadata is attached to a specified volume.

Parameters

volume_id ID of the volume

Returns: True if metadata exists, otherwise false

◆ is_blend_surface()

bool is_blend_surface ( int surface_id )

return whether the surface is a blend

Parameters

surface_id ID ofsurface

Returns: whether the surface is a blend

◆ is_boundary_layer_id_available()

bool is_boundary_layer_id_available ( int boundary_layer_id )

◆ is_catia_engine_available()

bool is_catia_engine_available ( )

Determine whether catia engine is available.

Returns: True if catia engine is available, otherwise false

◆ is_cavity_surface()

bool is_cavity_surface ( int surface_id )

return whether the surface is part of a cavity

Parameters

surface_id ID ofsurface

Returns: whether the surface is part of a cavity

◆ is_chamfer_surface()

bool is_chamfer_surface	(	int	surface_id,
		double	thickness_threshold
	)

return whether the surface is a chamfer

Parameters

surface_id	ID ofsurface
thickness_threshold	max thickness criteria for chamfer

Returns: whether the surface is a chamfer (if < 0 then 3*mesh_size)

◆ is_close_loop_surface()

bool is_close_loop_surface	(	int	surface_id,
		double	mesh_size
	)

return whether the has one or more close loops

Parameters

surface_id	ID ofsurface
mesh_size	Indicate the mesh size used as the threshold

Returns: whether the surface has one or more close loops

◆ is_command_echoed()

bool is_command_echoed ( )

Check the echo flag in cubit.

Returns: A boolean indicating whether commands should be echoed in Cubit

◆ is_command_journaled()

bool is_command_journaled ( )

Check the journaling flag in cubit.

Returns: A boolean indicating whether commands are journaled by Cubit

◆ is_cone_surface()

bool is_cone_surface ( int surface_id )

return whether the surface is a cone

Parameters

surface_id ID ofsurface

Returns: whether the surface is a cone

◆ is_continuous_surface()

bool is_continuous_surface	(	int	surface_id,
		double	angle_tol
	)

return whether the surface has any adjacent surfaces that are continuous (exterior angle is 180 degrees +- angle_tol)

Parameters

surface_id	ID ofsurface
angle_tol	angle tolerance for continuity

Returns: whether the surface has adjacent continuous surfaces

◆ is_cylinder_surface()

bool is_cylinder_surface ( int surface_id )

return whether the surface is a cylinder

Parameters

surface_id ID ofsurface

Returns: whether the surface is a cylinder

◆ is_geometry_visibility_on()

bool is_geometry_visibility_on ( )

Get the current geometry visibility setting.

Returns: True if scale is visible, otherwise false

◆ is_hole_surface()

bool is_hole_surface	(	int	surface_id,
		double	radius_threshold
	)

return whether the surface is part of a hole

Parameters

surface_id	ID of surface
radius_threshold	max radius criteria for hole (if < 0, then default is 3*mesh_size)

Returns: whether the surface is part of a hole

◆ is_interval_count_odd()

bool is_interval_count_odd ( int surface_id )

Query whether a specified surface has an odd loop.

Parameters

surface_id Id of the surface

Returns: True if surface is/contains an odd looop, otherwise false.

◆ is_merged()

bool is_merged	(	const std::string &	geometry_type,
		int	entity_id
	)

Determines whether a specified entity is merged.

if (CubitInterface::is_merged ("surface" , 137)) . . .

CubitInterface::is_merged

bool is_merged(const std::string &geometry_type, int entity_id)

Determines whether a specified entity is merged.

if cubit.is_merged("surface" , 137):

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

◆ is_mesh_element_in_group()

bool is_mesh_element_in_group	(	const std::string &	element_type,
		int	element_id
	)

Indicates whether a mesh element is in a group.

if (CubitInterface::is_mesh_element_in_group ("tet" , 445)) ...

CubitInterface::is_mesh_element_in_group

bool is_mesh_element_in_group(const std::string &element_type, int element_id)

Indicates whether a mesh element is in a group.

if cubit.is_mesh_element_in_group("tet" , 445):

Parameters

element_type	Mesh type of the element
element_id	ID of the mesh element return True if in a group, otherwise false

◆ is_mesh_visibility_on()

bool is_mesh_visibility_on ( )

Get the current mesh visibility setting.

Returns: True if scale is visible, otherwise false

◆ is_meshed()

bool is_meshed	(	const std::string &	geometry_type,
		int	entity_id
	)

Determines whether a specified entity is meshed.

if (CubitInterface::is_meshed ("surface" , 137)) . . .

CubitInterface::is_meshed

bool is_meshed(const std::string &geometry_type, int entity_id)

Determines whether a specified entity is meshed.

if cubit.is_meshed("surface" , 137):

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

◆ is_modified()

bool is_modified ( )

Get the modified status of the model.

Returns: A boolean indicating whether the model has been modified

◆ is_multi_volume()

bool is_multi_volume ( int body_id )

Query whether a specified body is a multi volume body.

Parameters

body_id Id of the body

Returns: True if body contains multiple volumes, otherwise false.

◆ is_narrow_surface()

bool is_narrow_surface	(	int	surface_id,
		double	mesh_size
	)

return whether the surface is narrow (has a width smaller than mesh_size)

Parameters

surface_id	ID ofsurface
mesh_size	threshold used to determine if is narrow

Returns: whether the surface is narrow

◆ is_occlusion_on()

bool is_occlusion_on ( )

Get the current occlusion mode.

Returns: True if occlusion is on, otherwise false

◆ is_on_thin_shell()

bool is_on_thin_shell	(	CI_BCTypes	bc_type_enum,
		int	entity_id
	)

Determine whether a BC is on a thin shell. Valid for temperature, convection and heatflux.

Parameters

bc_type_in	enum of CI_BCTypes. temperature = 4, convection = 7, heatflux = 8
entity_id	Id of the BC

Returns: true if BC is on thin shell element, otherwise false

◆ is_opencascade_engine_available()

bool is_opencascade_engine_available ( )

◆ is_part_of_list()

bool is_part_of_list	(	int	target_id,
		std::vector< int >	id_list
	)

Routine to check for the presence of an id in a list of ids.

Parameters

target_id	Target id
id_list	List of ids

Returns: True if target_id is member of id_list, otherwise false

◆ is_performing_undo()

bool is_performing_undo ( )

Check if an undo command is currently being performed.

Returns: True or false.

◆ is_periodic()

bool is_periodic	(	const std::string &	geometry_type,
		int	entity_id
	)

Query whether a specified surface or curve is periodic.

if (CubitInterface::is_periodic ("surface" , 22)) . . .

CubitInterface::is_periodic

bool is_periodic(const std::string &geometry_type, int entity_id)

Query whether a specified surface or curve is periodic.

if cubit.is_periodic("surface" , 22):

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

Returns: True is entity is periodic, otherwise false

◆ is_perspective_on()

bool is_perspective_on ( )

Get the current perspective mode.

Returns: True if perspective is on, otherwise false

◆ is_playback_paused_on_error()

bool is_playback_paused_on_error ( )

Gets whether or not playback is paused when an error occurs.

Returns: True if playback should be paused when an error occurs.

◆ is_point_contained()

int is_point_contained	(	const std::string &	geometry_type,
		int	entity_id,
		const std::array< double, 3 > &	xyz_point
	)

Determine if given point is inside, outside, on or unknown the given entity. note that this is typically used for volumes or sheet bodies.

Parameters

geom_type string defining geometry type (volume or body) id ID of the geometric entity point xyz triplet defining the point (note that it must be std::array<double,3>

Returns: -1 failure, 0 outside, 1, inside, 2 on

◆ is_scale_visibility_on()

bool is_scale_visibility_on ( )

Get the current scale visibility setting.

Returns: True if scale is visible, otherwise false

◆ is_select_partial_on()

bool is_select_partial_on ( )

Get the current select partial setting.

Returns: True if partial select is on, otherwise false

◆ is_sheet_body()

bool is_sheet_body ( int volume_id )

Query whether a specified volume is a sheet body.

Parameters

volume_id Id of the volume

Returns: True if volume is a sheet body, otherwise false

◆ is_surface_meshable()

bool is_surface_meshable ( int surface_id )

Check if surface is meshable with current scheme.

Returns: A boolean indicating whether surface is meshable with current scheme

◆ is_surface_planar()

bool is_surface_planar ( int surface_id )

◆ is_surface_planer()

bool is_surface_planer ( int surface_id )

Query whether a specified surface is planer.

if (CubitInterface::is_surface_planar (22)) . . .

CubitInterface::is_surface_planar

bool is_surface_planar(int surface_id)

if cubit.is_surface_planar(22):

Parameters

surface_id Specifies the id of the surface

Returns: True is surface is planer, otherwise false

◆ is_type_filtered()

bool is_type_filtered ( const std::string & filter_type )

Determine whether a type is filtered.

◆ is_undo_save_needed()

bool is_undo_save_needed ( )

Get the status of the model relative to undo checkpointing.

Returns: A boolean indicating whether the model has been modified

◆ is_virtual()

bool is_virtual	(	const std::string &	geometry_type,
		int	entity_id
	)

Query virtualality for a specific entity.

if (CubitInterface::is_virtual ("surface" , 134)) . . .

CubitInterface::is_virtual

bool is_virtual(const std::string &geometry_type, int entity_id)

Query virtualality for a specific entity.

if cubit.is_virtual("surface" , 134)):

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

◆ is_visible()

bool is_visible	(	const std::string &	geometry_type,
		int	entity_id
	)

Query visibility for a specific entity.

if (CubitInterface::is_visible ("volume" , 4)) . . .

CubitInterface::is_visible

bool is_visible(const std::string &geometry_type, int entity_id)

Query visibility for a specific entity.

if cubit.is_visible("volume" , 4)):

Parameters

geom_type	Specifies the geometry type of the entity
entity_id	Specifies the id of the entity

◆ is_volume_meshable()

bool is_volume_meshable ( int volume_id )

Check if volume is meshable with current scheme.

Returns: A boolean indicating whether volume is meshable with current scheme

◆ is_working_dir_set()

bool is_working_dir_set ( )

Create BCVizInterface for CompSimUI.

Returns

was the -workingdir passed in from the command line

Returns: boolean value indicating whether -working dir was set

◆ journal_commands()

void journal_commands ( bool state )

Set the journaling flag in cubit.

Parameters

state A boolean that turns journaling on (1) and off (0)

◆ load_ML()

bool load_ML ( std::string model_type = "all" )

load the machine learning training data

Parameters

model_type should be one of "all", "classification" or "regression"

◆ measure_between_entities()

std::vector< double > measure_between_entities	(	std::string	entity_type1,
		int	entity_id1,
		std::string	entity_type2,
		int	entity_id2
	)

returns distance between two geometry entities and their closest points

                  std::vector<double> dist_info =
               
CubitInterface::measure_between_entities
                  ("curve"
                  , 10, "surface"
                  , 12)
               
                  double dist = dist_info[0]
               
                  std::vector<double
                  > curv_point = {dist_info[1], dist_info[2], dist_info[3]};
               
                  std::vector<double> surf_point = {dist_info[4], dist_info[5], dist_info[6]};

                  dist_info = cubit.measure_between_entities("curve"
                  , 10, "surface"
                  , 12)
               
                  dist = dist_info[0]
               
                  curv_point = [dist_info[1], dist_info[2], dist_info[3]]
               
                  surf_point = [dist_info[4], dist_info[5], dist_info[6]]

Parameters

entity_type1	type of first entity
entity_id1	id of first entity
entity_type2	type of second entity
entity_id2	id of second entity

◆ ML_train()

bool ML_train ( std::string geom_type )

force a new training. Currently implemented for only classification methods, volume_no_op and surface_no_op.

Parameters

geom_type "volume" or "surface"

◆ move()

void move	(	Entity	entity,
		std::array< double, 3 >	vector,
		bool	preview = `false`
	)

Moves the Entity the specified vector.

Parameters

[in]	entity	The Entity to be moved
[in]	vector	The vector the Entity will be moved
[in]	preview	Flag to show the preview or not, default is false

◆ number_undo_commands()

int number_undo_commands ( )

Query whether there are any undo commands to execute.

Returns: The number of commands in the undo stack

◆ override_journal_stream()

void override_journal_stream ( JournalStreamBase * jnl_stream )

Override the Journal Stream in CUBIT.

Returns

◆ parse_cubit_list()

std::vector< int > parse_cubit_list	(	const std::string &	type,
		std::string	entity_list_string
	)

Parse a Cubit style entity list into a list of integers.

Users are allowed to input many variations of entities and IDs for any given command. This routine parses the input and returns a regular list of valid IDs for the specified entity type. For example: parse_cubit_list('surface', '1 to 12') parse_cubit_list('surface', 'with name "myname*"') parse_cubit_list('surface', 'in volume 5 to 23')

Parameters

type	The specific entity type represented by the list of entities
int_list	The string that contains the entity list

Returns: A vector (python tuple) of validated integers

◆ plugin_manager()

CubitPluginManager * plugin_manager ( )

◆ print_cmd_options()

void print_cmd_options ( )

Used to print the command line options.

◆ print_current_selections()

void print_current_selections ( )

Print the current selections.

◆ print_currently_selected_entity()

void print_currently_selected_entity ( )

Print the current selection.

◆ print_info()

void print_info ( const std::string & message )

Print a message using the cubit message handler.

Parameters

message The message to print.

◆ print_raw_help()

void print_raw_help	(	const char *	input_line,
		int	order_dependent,
		int	consecutive_dependent
	)

Used to print out help when a ?, & or ! is pressed.

Parameters

input_line	The current command line being typed by the user
order_dependent	Is set to '1' if the key pressed is not &, otherwise '0'
consecutive_dependent	Is set to '1' if the pressed is '?', otherwise '0'

◆ print_surface_summary_stats()

void print_surface_summary_stats ( )

Print the surface summary stats to the console.

◆ print_volume_summary_stats()

void print_volume_summary_stats ( )

Print the volume summary stats to the console.

◆ prism()

Body prism	(	double	height,
		int	sides,
		double	major,
		double	minor
	)

Creates a prism of the specified dimensions.

Parameters

[in]	height	The height of the prism
[in]	sides	The number of sides of the prism
[in]	major	The major radius
[in]	minor	The minor radius

Returns: A Body object of the newly created prism

◆ process_input_files()

void process_input_files ( )

C++ only

◆ project_unit_square()

std::vector< std::vector< double > > project_unit_square	(	std::vector< std::vector< double > >	pts,
		int	surface_id,
		int	quad_id,
		int	node00_id,
		int	node10_id
	)

Given points in a unit square, map them to the given quad using the orientation info, then project them onto the given surface, and return their projected positions.

Parameters

pts	The x,y (abstract u,v) coordinates of the input points. Should be in [0,1].
surf_id	The surface.
quad_id	The quad.
node00_id	The id of the node of the quad corresponding to an input point with coordinates (0,0)
node10_id	The id of the node of the quad corresponding to an input point with coordinates (1,0)

Returns: Return the position on the surface of each input node, in the same order as the input was given

◆ pyramid()

Body pyramid	(	double	height,
		int	sides,
		double	major,
		double	minor,
		double	top = `0.0`
	)

Creates a pyramid of the specified dimensions.

Parameters

[in]	height	The height of the pyramid
[in]	sides	The number of sides of the pyramid
[in]	major	The major radius
[in]	minor	The minor radius
[in]	top	determines size for the top of the pyramid. Defaults to 0, meaning it will go to a point

Returns: A Body object of the newly created pyramid

◆ reflect()

void reflect	(	Entity	entity,
		std::array< double, 3 >	axis,
		bool	preview = `false`
	)

Reflect the Entity about the specified axis.

Parameters

[in]	entity	The Entity to be reflected
[in]	axis	The axis to be reflected about
[in]	preview	Flag to show the preview or not, default is false

◆ release_interface()

bool release_interface ( CubitBaseInterface * instance )

Release the interface with the given name.

Parameters

interface_name the name of interface

◆ remove_entity_from_group()

void remove_entity_from_group	(	int	group_id,
		int	entity_id,
		const std::string &	entity_type
	)

Remove a specific entity from a specific group.

CubitInterface::remove_entity_from_group (3, 22, "surface" );

CubitInterface::remove_entity_from_group

void remove_entity_from_group(int group_id, int entity_id, const std::string &entity_type)

Remove a specific entity from a specific group.

cubit.remove_entity_from_group(3, 22, "surface" )

Parameters

group_id	ID of group from which the entity will be removed
entity_id	ID of the entity to be removed from the group
entity_type	Type of the entity to be removed from the group. Note that only geometric entities can be removed

◆ remove_filter_type()

void remove_filter_type ( const std::string & filter_type )

Remove a filter type.

◆ replace_progress_handler()

CubitProgressHandler * replace_progress_handler ( CubitProgressHandler * progress )

Register a new progress-bar callback handler with Cubit and return the the previous progress-handler without deleting it.

Parameters

progress A pointer to a CubitProgressHandler instance

Returns: pointer to previous progress handler

◆ report_usage()

void report_usage ( )

◆ reset()

void reset ( )

Executes a reset within cubit.

◆ reset_camera()

void reset_camera ( )

reset the camera in all open windows this includes resetting the view, closing the histogram and color windows and clearing the scalar bar, highlight, and picked entities.

◆ scale()

void scale	(	Entity	entity,
		double	factor,
		bool	preview = `false`
	)

Scales the Entity according to the specified factor.

Parameters

[in]	entity	The Entity to be scaled
[in]	factor	The scale factor
[in]	preview	Flag to show the preview or not, default is false

◆ set_capture_color()

void set_capture_color	(	bool	is_captured,
		std::array< double, 4 >	color
	)

◆ set_copy_block_on_geometry_copy_setting()

bool set_copy_block_on_geometry_copy_setting ( std::string val )

Set the copy block on geometry copy setting "ON", "USE_ORIGINAL", or "OFF".

Returns: success/fail setting the setting

◆ set_copy_nodeset_on_geometry_copy_setting()

bool set_copy_nodeset_on_geometry_copy_setting ( std::string val )

Set the copy nodeset on geometry copy setting "ON", "USE_ORIGINAL", or "OFF".

Returns: success/fail setting the setting

◆ set_copy_sideset_on_geometry_copy_setting()

bool set_copy_sideset_on_geometry_copy_setting ( std::string val )

Set the copy sideset on geometry copy setting "ON", "USE_ORIGINAL", or "OFF".

Returns: success/fail setting the setting

◆ set_cubit_interrupt()

void set_cubit_interrupt ( bool interrupt )

This sets the global flag in Cubit that stops all interruptable processes.

Parameters

interrupt Boolean set to TRUE if process is to be stopped

◆ set_cubit_message_error_handler()

void set_cubit_message_error_handler ( CubitMessageErrorHandler * hdlr )

provide error context

Parameters

hdlr

◆ set_cubit_message_handler()

void set_cubit_message_handler ( CubitMessageHandler * hdlr )

redirect the output from cubit.

Parameters

hdlr

◆ set_entity_name()

bool set_entity_name	(	const std::string &	entity_type,
		int	entity_id,
		const std::string &	new_name
	)

Set the name of a specified entity.

CubitInterface::set_entity_name ("vertex" , 22, "new_name" );

CubitInterface::set_entity_name

bool set_entity_name(const std::string &entity_type, int entity_id, const std::string &new_name)

Set the name of a specified entity.

Parameters

entity_type	Specifies the type of the entity
entity_id	Specifies the id of the entity
new_name	Specifies what the name of the entity should be changed to

Returns: true if entity was found and rename, otherwise false.

◆ set_exit_handler()

void set_exit_handler ( ExternalExitHandler * hdlr )

Set the exit handler.

Parameters

An	instance of a class that inherits from ExternalExitHandler

◆ set_filter_types()

void set_filter_types	(	int	num_types,
		const std::vector< std::string >	filter_types
	)

Set the pick filter types.

◆ set_label_type()

void set_label_type	(	const char *	entity_type,
		int	label_flag
	)

make calls to SVDrawTool::set_label_type

Returns: none.

◆ set_max_group_id()

void set_max_group_id ( int maximum_group_id )

Reset Cubit's max group id This is really dangerous to use and exists only to overcome a limitation with Cubit. Cubit keeps track of the next group id to assign. But those ids just keep incrementing in Cubit. Some of the power tools in the Cubit GUI make groups 'under the covers' for various operations. The groups are immediately deleted. But, creating those groups will cause Cubit's group id to increase and downstream journal files may be messed up because those journal files are expecting a certain ID to be available.

When using this call the user must ensure the group max_group_id is under their control. Typically, a user will create a group, use it, then immediately delete it. This call will only work if the max_group_id is the same as Cubit's max group id. If it is Cubit's max id will be reset. If not, nothing will happen.

Parameters

max_id ID of group to make 'max'

◆ set_ML_base_user_dir()

void set_ML_base_user_dir	(	const std::string	path,
		const bool	print_info = `false`
	)

set the path to any user training data. (classification only)

Parameters

path	top level training directory (should contain ml/volume_no_op dir)
print_info	print info to output
only	use only user training data – don't use cubit training data

◆ set_modified()

void set_modified ( )

Set the status of the model (is_modified() is now false). If you modify the model after you set this flag, it will register true.

◆ set_overlap_max_angle()

void set_overlap_max_angle ( const double maximum_angle )

Set the max angle setting for calculating surface overlaps.

Parameters

max angle

Returns

◆ set_overlap_max_gap()

void set_overlap_max_gap ( const double maximum_gap )

Set the max gap setting for calculating surface overlaps.

Parameters

max gap

Returns

◆ set_overlap_min_gap()

void set_overlap_min_gap ( const double min_gap )

Set the min gap setting for calculating surface overlaps.

Parameters

min_gap

Returns

◆ set_pick_type()

void set_pick_type	(	const std::string &	pick_type,
		bool	silent = `false`
	)

Set the pick type.

◆ set_playback_handler()

void set_playback_handler ( ExternalPlaybackHandler * hdlr )

C++ only

Parameters

◆ set_playback_paused_on_error()

void set_playback_paused_on_error ( bool pause )

Sets whether or not playback is paused when an error occurs.

Parameters

pause True if playback should be paused when an error occurs.

◆ set_progress_handler()

void set_progress_handler ( CubitProgressHandler * progress )

Register a progress-bar callback handler with Cubit. Deletes the current progress handler if it exists.

Parameters

progress A pointer to a CubitProgressHandler instance

◆ set_rendering_mode()

void set_rendering_mode ( int mode )

Set the current rendering mode.

Parameters

mode	Integer associated with the rendering mode. Options are 1,7,2,8, or 5

◆ set_undo_saved()

void set_undo_saved ( )

Set the status of the model relative to undo checkpointin.

◆ silent_cmd()

bool silent_cmd ( const char * input_string )

Pass a command string into Cubit and have it executed without being verbose at the command prompt.

Passing a command into Cubit using this method will result in an immediate execution of the command. The command is passed directly to Cubit without any validation or other checking.

CubitInterface::silent_cmd ("display" );

CubitInterface::silent_cmd

bool silent_cmd(const char *input_string)

Pass a command string into Cubit and have it executed without being verbose at the command prompt.

cubit.silent_cmd("display" )

Parameters

input_string Pointer to a string containing a complete Cubit command

◆ sizing_source_growth_factor()

double sizing_source_growth_factor ( int id )

◆ sizing_source_ids()

std::vector< int > sizing_source_ids ( )

Functions to support sizing source sizing function.

◆ sizing_source_max_size()

double sizing_source_max_size ( )

◆ sizing_source_min_size()

double sizing_source_min_size ( )

◆ sizing_source_origin()

std::array< double, 3 > sizing_source_origin ( int id )

◆ sizing_source_rotation_angle()

double sizing_source_rotation_angle ( int id )

◆ sizing_source_rotation_vector()

std::array< double, 3 > sizing_source_rotation_vector ( int id )

◆ sizing_source_scale()

std::array< double, 3 > sizing_source_scale ( int id )

◆ sizing_source_size()

double sizing_source_size ( int id )

◆ snap_locations_to_geometry()

std::vector< std::array< double, 3 > > snap_locations_to_geometry	(	const std::vector< std::array< double, 3 > > &	locations,
		std::string	entity_type,
		int	entity_id,
		double	tol
	)

Snaps xyz locations to closest point on entity. Then snaps to child curves or vertices within given tolerance. Vertices snapped to before curves.

#give list of lists of 3 points in form: [ [x, y, z], [x, y, z], ...]
               
                  locations = [ [0.0, 1.0, 3.0], [0.1, 1.1, 4.2] ] 
               
                  snapped_xyz_vec = cubit.snap_locations_to_geometry( locations, "volume"
                  , 1, 0.001 )

◆ sphere()

Body sphere	(	double	radius,
		int	x_cut = `0`,
		int	y_cut = `0`,
		int	z_cut = `0`,
		double	inner_radius = `0`
	)

Creates all or part of a sphere.

Parameters

[in]	radius	The radius of the sphere
[in]	x_cut	If 1, cuts sphere by yz plane (default to 0)
[in]	y_cut	If 1, cuts sphere by xz plane (default to 0)
[in]	z_cut	If 1, cuts sphere by xy plane (default to 0)
[in]	inner_radius	The inside radius if the sphere is hollow (default to 0)

Returns: A Body object of the newly created sphere

◆ step_next_possible_selection()

void step_next_possible_selection ( )

Step to the next possible selection (selected next dialog)

◆ step_previous_possible_selection()

void step_previous_possible_selection ( )

Step to the previous possible selection (selected next dialog)

◆ string_from_id_list()

std::string string_from_id_list ( std::vector< int > ids )

Parse a list of integers into a Cubit style id list. Includes carriage return and line breaks at column 80.

For example: string_from_id_list(<1, 2, 3, 4, 5, 6, 7, 8>) returns '1 to 8' example: string_from_id_list(<1, 2, 3, 100, 5, 6, 7, 8>) returns '1 to 3, 5 to 8, 100'

                  std::vector<int> entity_ids = {1, 2, 3, 4};
               
                  std::string id_string = CubitInterface::get_id_string
                  (entity_ids);
               
// id_string is "1 to 4\n";

                  entity_ids = [1,2,3,4]
               
                  id_string = cubit.get_all_ids_from_name(entity_ids)
               
# id_string is '1 to 4\n'

Parameters

ids	The vector of integer ids

Returns: A string representing the id list with line breaks

◆ subtract()

std::vector< Body > subtract	(	std::vector< CubitInterface::Body >	tool_in,
		std::vector< CubitInterface::Body >	from_in,
		bool	imprint_in = `false`,
		bool	keep_old_in = `false`
	)

Performs a boolean subtract operation.

Parameters

[in]	tool_in	List of Body objects to subtract
[in]	from_in	List of Body objects to be subtracted from
[in]	imprint_in	Flag to set the imprint (defaults to false)
[in]	keep_old_in	Flag to keep the old volume (defaults to false)

Returns: A list of changed body objects

◆ surface()

CubitInterface::Surface surface ( int id_in )

Gets the surface object from an ID.

Parameters

id_in The ID of the surface

Returns: The surface object

◆ sweep_curve()

std::vector< Body > sweep_curve	(	std::vector< Curve >	curves,
		std::vector< Curve >	along_curves,
		double	draft_angle = `0`,
		int	draft_type = `0`,
		bool	rigid = `false`
	)

Create a Body or a set of Bodies from a swept curve.

Parameters

[in]	curves	A list of curves to sweep
[in]	along_curves	A list of curves to sweep along
[in]	draft_angle	The sweep draft angle (default to 0)
[in]	draft_type	The draft type (default to 0) 0 => extended (draws two straight tangent lines from the ends of each segment until they intersect) 1 => rounded (create rounded corner between segments) 2 => natural (extends the shapes along their natural curve) ***
[in]	rigid	The inside radius if the sphere is hollow (default to False)

Returns: A List of newly created Bodies

◆ temperature_is_on_shell_area()

bool temperature_is_on_shell_area	(	CI_BCTypes	bc_type_enum,
		CI_BCEntityTypes	bc_area_enum,
		int	entity_id
	)

Determine whether a BC temperature is on a shell area. Valid for convection and temperature and on top, bottom, gradient, and middle.

Parameters

bc_type	enum of CI_BCTypes. temperature = 4, convection = 7
bc_area	enum of CI_BCEntityTypes. Use 7 for top, 8 for bottom, 9 for gradient, 10 for middle
entity_id	Id of the BC

Returns: true if BC temperature is on the shell area, otherwise false

◆ temperature_is_on_solid()

bool temperature_is_on_solid	(	CI_BCTypes	bc_type_enum,
		int	entity_id
	)

Determine whether a BC temperature is on a solid. Valid for convection and temperature.

Parameters

bc_type_in	enum of CI_BCTypes. temperature = 4, convection = 7
entity_id	Id of the BC

Returns: true if BC temperature is on a solid, otherwise false

◆ torus()

Body torus	(	double	center_radius,
		double	swept_radius
	)

creates a torus of the specified dimensions

Parameters

[in]	r1	radius from center to center of circle to be swept (r1>r2)
[in]	r2	radius of circle swept to create torus (r1>r2)

Returns: A Body object of the newly created torus

◆ tweak_curve_offset()

std::vector< Body > tweak_curve_offset	(	std::vector< Curve >	curves,
		std::vector< double >	distances,
		bool	keep_old = `false`,
		bool	preview = `false`
	)

Performs a tweak curve offset command.

Parameters

[in]	curves	A list of curve objects to offset
[in]	distances	A list of distances associated with the offset for each curve
[in]	keep_old	Keep the old body (defaults to false)
[in]	preview	Flag to show the preview (defaults to false)

Returns: A list of changed body objects

◆ tweak_curve_remove()

std::vector< CubitInterface::Body > tweak_curve_remove	(	std::vector< Curve >	curves,
		bool	keep_old = `false`,
		bool	preview = `false`
	)

Removes a curve from a body and extends the surrounding surface to fill the gap.

Removes a curve from a body

Parameters

[in]	surfaces	A list of the curves to be removed
[in]	keep_old	Keep the old body (defaults to false)
[in]	preview	Flag to show the preview (defaults to false)

Returns: A list of changed body objects

◆ tweak_surface_offset()

std::vector< Body > tweak_surface_offset	(	std::vector< Surface >	surfaces,
		std::vector< double >	distances
	)

Performs a tweak surface offset command.

Parameters

surfaces	A list of surface objects to offset
distances	A list of distances associated with the offset for each surface

Returns: A list of the body objects of the modified bodies

◆ tweak_surface_remove()

std::vector< CubitInterface::Body > tweak_surface_remove	(	std::vector< Surface >	surfaces,
		bool	extend_ajoining = `true`,
		bool	keep_old = `false`,
		bool	preview = `false`
	)

Removes a surface from a body and extends the surrounding surfaces if extend_ajoining is true.

Removes a surface from a body

Parameters

[in]	surfaces	The surfaces to be removed
[in]	extend_ajoining	Extend the ajoining surfaces (default to true)
[in]	keep_old	Keep the old body (default to false)
[in]	preview	Flag to show the preview or not (default to false)

Returns: A list of changed body objects

◆ tweak_vertex_fillet()

std::vector< Body > tweak_vertex_fillet	(	std::vector< Vertex >	verts,
		double	radius,
		bool	keep_old = `false`,
		bool	preview = `false`
	)

Performs a tweak vertex fillet command.

Parameters

[in]	verts	A list of vertex objects to fillet
[in]	r0	radius of the fillet
[in]	keep_old	Keep the old body (defaults to false)
[in]	preview	Flag to show the preview (defaults to false)

Returns: A list of changed body objects

◆ unite()

std::vector< Body > unite	(	std::vector< CubitInterface::Body >	body_in,
		bool	keep_old_in = `false`
	)

Performs a boolean unite operation.

Parameters

[in]	body_in	A list of body objects to unite
[in]	keep_old_in	Flag to keep old bodies (defaults to false)

Returns: A list of changed bodies

◆ unload_ML()

void unload_ML ( std::string model_type = "all" )

unload the machine learning training data

Parameters

model_type should be one of "all", "classification" or "regression"

◆ unselect_entity()

void unselect_entity	(	const std::string &	entity_type,
		int	entity_id
	)

Unselect an entity that is currently selected.

Unselecting an entity will unhighlight it in the graphics window and remove it from the global pick list.

CubitInterface::unselect_entity ("curve" , 221);

CubitInterface::unselect_entity

void unselect_entity(const std::string &entity_type, int entity_id)

Unselect an entity that is currently selected.

cubit.unselect_entity("curve" , 221)

Parameters

entity_type	The type of the entity to be unselected
entity_id	The ID of the entity to be unselected

◆ vertex()

CubitInterface::Vertex vertex ( int id_in )

Gets the vertex object from an ID.

Parameters

id_in The ID of the vertex

Returns: The vertex object

◆ volume()

CubitInterface::Volume volume ( int id_in )

Gets the volume object from an ID.

Parameters

id_in The ID of the volume

Returns: The volume object

◆ volume_contains_tets()

bool volume_contains_tets ( int volume_id )

Determine whether a volume contains tets.

Returns: bool

◆ was_last_cmd_undoable()

bool was_last_cmd_undoable ( )

Report whether the last executed command was undoable.

Returns: true if the last executed command was undoable

◆ write_to_journal()

void write_to_journal ( std::string words )

Write a string to the active journal.

words string to write to journal file

Returns: A boolean indicating whether commands are journaled by Cubit

Variable Documentation

◆ CI_ERROR

const int CI_ERROR = -1

Classes

Functions

CubitInterface Control

Detailed Description

Function Documentation

◆ add_entities_to_group()

◆ add_entity_to_group()

◆ add_filename_to_recent_file_list()

◆ add_filter_type()

◆ are_adjacent_curves()

◆ are_adjacent_surfaces()

◆ auto_size_needs_to_be_calculated()

◆ best_edge_to_collapse_interior_node()

◆ body()

◆ brick()

◆ calculate_timestep_estimate()

◆ calculate_timestep_estimate_with_props()

◆ clear_drawing_set()

◆ clear_highlight()

◆ clear_picked_list()

◆ clear_preview()

◆ cmd()

◆ compare_geometry_and_mesh()

◆ complete_filename()

◆ contains_virtual()

◆ convection_is_on_shell_area()

◆ convection_is_on_solid()

◆ copy_body()

◆ create_arc_curve()

◆ create_curve()

◆ create_new_group()

◆ create_spline()

◆ create_surface()

◆ create_user_interface()

◆ create_vertex()

◆ current_selection_count()

◆ curve()

◆ cylinder()

◆ delete_all_groups()

◆ delete_group()

◆ destroy()

◆ developer_commands_are_enabled()

◆ draw_curve_capture()

◆ draw_curve_capture_from_size()

◆ enable_signal_handling()

◆ ensure_init()

◆ entity_exists()

◆ estimate_curve_mesh_size()

◆ estimate_curves_mesh_size()

◆ estimate_merge_tolerance()

◆ estimate_morph_num_procs()

◆ estimate_morph_tet_element_count()

◆ evaluate_exterior_angle()

◆ evaluate_exterior_angle_at_curve()

◆ evaluate_surface_angle_at_vertex()

◆ exodus_sizing_function_file_exists()

◆ find_floating_volumes()

◆ find_nonmanifold_curves()

◆ find_nonmanifold_vertices()

◆ flush_graphics()

◆ gather_surfaces_by_orientation()

◆ get_2D_sheet_volumes()

◆ get_3D_thin_volume()

◆ get_acceleration_combine_type()

◆ get_acceleration_dof_signs()

◆ get_acceleration_dof_values()

◆ get_acis_version()

◆ get_acis_version_as_int()

◆ get_adjacent_surfaces()

◆ get_adjacent_volumes()

◆ get_all_cfd_bcs()

◆ get_all_exodus_times()

◆ get_all_exodus_variable_names()

◆ get_all_geometric_owners()

◆ get_all_ids_from_name()

◆ get_aprepro_numeric_value()

◆ get_aprepro_value()

◆ get_aprepro_value_as_string()

◆ get_aprepro_vars()

◆ get_arc_length()