/*
uf_sf_types.h
File Description :
Data Definitions for the Open C API interface to Scenario.
*****************************************************************************/
#ifndef UF_SF_TYPES__H_INCLUDED
#define UF_SF_TYPES__H_INCLUDED
#include <uf_defs.h>
#include <string.h>
#include <uf_sf_lang_names.h>
#include <uf_cfi_types.h>
#include <uf_unit_types.h>
#include <uf_sf_enums.h>
#define UF_SF_MIDSRF_NON_EXIST (-1)
#define UF_SF_MIDSRF_FACEPAIR_METHOD 0
#define UF_SF_MIDSRF_OFFSET_METHOD 1
#define UF_SF_MIDSRF_USER_DEF_METHOD 2
#define UF_SF_SECTION_UNINITIALIZED -777777.
#define UF_SF_USER_DEFINED_TW_THICKNESS "USER_DEFINED_THIN_WALL_THICKNESS"
struct UF_SF__fixed_s
{
UF_SF_fem_coord_type_t type; /* Coordinate type. */
double origin[3]; /* origin point */
double x_dir[3]; /* x direction vector */
double y_dir[3]; /* y direction vector */
double z_dir[3]; /* z direction vector */
};
typedef struct UF_SF__fixed_s UF_SF__fixed_t;
union UF_SF_matl_orient_u
{
UF_SF__fixed_t fixed;
};
typedef union UF_SF_matl_orient_u UF_SF_matl_orient_t,
*UF_SF_matl_orient_p_t;
union UF_SF_table_u
{
double pair[2]; /* A pair of values for the tabular
form of variable material
properties. The first value is the
independent variable where as the
second one is dependent on the
first. */
};
typedef union UF_SF_table_u UF_SF_table_t,
*UF_SF_table_p_t;
struct UF_SF_table_prop_s
{
int size; /* The number of pairs in the table. */
UF_SF_table_p_t array_ptr; /* Pointer to the table that has
the data. */
};
typedef struct UF_SF_table_prop_s UF_SF_table_prop_t,
*UF_SF_table_prop_p_t;
union UF_SF__multi_u
{
UF_SF_table_prop_p_t table_ptr; /* pointer to the table property
structure. */
tag_t expression_tag; /* Tag of the expression if
type of property is through
expression. */
};
typedef union UF_SF__multi_u UF_SF__multi_t;
struct UF_SF_multi_prop_s
{
UF_SF_multi_prop_type_t type; /* Type of property, tabular or through
expression. */
UF_SF__multi_t multi; /* Union containing pointer to the table
and tag of the expression. */
UF_UNIT_MEASURE_TYPE_t measure_type; /* Type of measure - Eg. MEASURE_FORCE, MEASURE_MASS_DENSITY..etc*/
tag_t unit_type_tag; /* Tag to pointer of unit type - Eg Newton, kg/m3 ..etc */
};
typedef struct UF_SF_multi_prop_s UF_SF_multi_prop_t,
*UF_SF_multi_prop_p_t;
/* The array sizes in UF_SF_extend_matl_prop */
#define UF_SF_extend_matl_aniso_G1 6
#define UF_SF_extend_matl_aniso_G2 6
#define UF_SF_extend_matl_aniso_thermal_coeff 6
#define UF_SF_extend_matl_aniso_thermal_conduct1 3
#define UF_SF_extend_matl_aniso_thermal_conduct2 3
#define UF_SF_extend_matl_ortho_youngs_modulus 3
#define UF_SF_extend_matl_ortho_poissons_ratio 3
#define UF_SF_extend_matl_ortho_shear_modulus 3
#define UF_SF_extend_matl_ortho_thermal_coeff 3
#define UF_SF_extend_matl_ortho_thermal_conduct 3
struct UF_SF__isotropic_s
{
UF_SF_multi_prop_t youngs_modulus;
UF_SF_multi_prop_t poissons_ratio;
UF_SF_multi_prop_t shear_modulus;
UF_SF_multi_prop_t mass_density;
UF_SF_multi_prop_t thermal_coeff;
UF_SF_multi_prop_t reference_temperature;
UF_SF_multi_prop_t plastic_strain_ratio;
UF_SF_multi_prop_t thermal_conduct;
UF_SF_multi_prop_t specific_heat;
UF_SF_multi_prop_t latent_heat;
UF_SF_multi_prop_t phase_temperature;
UF_SF_multi_prop_t phase_temperature_range;
UF_SF_multi_prop_t phase_specific_heat;
UF_SF_multi_prop_t ir_scattering_coeff;
UF_SF_multi_prop_t solar_scattering_coeff;
UF_SF_multi_prop_t ir_extinction_coeff;
UF_SF_multi_prop_t solar_extinction_coeff;
UF_SF_multi_prop_t electrical_resistivity;
UF_SF_multi_prop_t max_stress_tension;
UF_SF_multi_prop_t max_stress_compression;
UF_SF_multi_prop_t max_in_plane_shear_stress;
UF_SF_multi_prop_t max_strain_tension;
UF_SF_multi_prop_t max_strain_compression;
UF_SF_multi_prop_t max_in_plane_shear_strain;
UF_SF_multi_prop_t tsai_wu_interaction;
UF_SF_multi_prop_t damping_coeff;
};
typedef struct UF_SF__isotropic_s UF_SF__isotropic_t;
struct UF_SF__anisotropic_s
{
UF_SF_multi_prop_t G [6] [6];
UF_SF_multi_prop_t mass_density;
UF_SF_multi_prop_t thermal_coeff [6];
UF_SF_multi_prop_t reference_temperature;
UF_SF_multi_prop_t thermal_conduct [3][3];
UF_SF_multi_prop_t specific_heat;
UF_SF_multi_prop_t damping_coeff;
};
typedef struct UF_SF__anisotropic_s UF_SF__anisotropic_t;
struct UF_SF__orthotropic_s
{
UF_SF_multi_prop_t youngs_modulus [3];
UF_SF_multi_prop_t poissons_ratio [3];
UF_SF_multi_prop_t mass_density;
UF_SF_multi_prop_t shear_modulus [3];
UF_SF_multi_prop_t thermal_coeff [3];
UF_SF_multi_prop_t reference_temperature;
UF_SF_multi_prop_t thermal_conduct [3];
UF_SF_multi_prop_t specific_heat;
UF_SF_multi_prop_t latent_heat;
UF_SF_multi_prop_t phase_temperature;
UF_SF_multi_prop_t phase_temperature_range;
UF_SF_multi_prop_t phase_specific_heat;
UF_SF_multi_prop_t ir_scattering_coeff;
UF_SF_multi_prop_t solar_scattering_coeff;
UF_SF_multi_prop_t ir_extinction_coeff;
UF_SF_multi_prop_t solar_extinction_coeff;
UF_SF_multi_prop_t electrical_resistivity;
UF_SF_multi_prop_t max_stress_tension[3];
UF_SF_multi_prop_t max_stress_compression[3];
UF_SF_multi_prop_t max_in_plane_shear_stress;
UF_SF_multi_prop_t max_strain_tension[3];
UF_SF_multi_prop_t max_strain_compression[3];
UF_SF_multi_prop_t max_in_plane_shear_strain;
UF_SF_multi_prop_t tsai_wu_interaction;
UF_SF_multi_prop_t damping_coeff;
};
typedef struct UF_SF__orthotropic_s UF_SF__orthotropic_t;
struct UF_SF__fluid_s
{
UF_SF_multi_prop_t mass_density;
UF_SF_multi_prop_t thermal_conduct;
UF_SF_multi_prop_t thermal_coeff;
UF_SF_multi_prop_t dynamic_viscosity;
UF_SF_multi_prop_t specific_heat_pressure;
UF_SF_multi_prop_t gas_constant;
UF_SF_multi_prop_t bulk_modulus;
UF_SF_multi_prop_t sound_speed;
UF_SF_multi_prop_t damping_coeff;
UF_SF_multi_prop_t molar_mass;
};
typedef struct UF_SF__fluid_s UF_SF__fluid_t;
union UF_SF_material_prop_u
{
UF_SF__isotropic_t isotropic;
UF_SF__anisotropic_t anisotropic;
UF_SF__orthotropic_t orthotropic;
UF_SF__fluid_t fluid;
};
typedef union UF_SF_material_prop_u UF_SF_material_prop_t,
*UF_SF_material_prop_p_t;
struct UF_SF_material_formability_s
{
UF_SF_multi_prop_t work_hardening;
UF_SF_multi_prop_t flc;
UF_SF_multi_prop_t stress_strain_curve;
};
typedef struct UF_SF_material_formability_s UF_SF_material_formability_prop_t,
*UF_SF_material_formability_prop_p_t;
struct UF_SF_material_strength_s
{
UF_SF_multi_prop_t yield;
UF_SF_multi_prop_t ultimate_tensile;
};
typedef struct UF_SF_material_strength_s UF_SF_material_strength_prop_t,
*UF_SF_material_strength_prop_p_t;
struct UF_SF_material_fatigue_s
{
UF_SF_multi_prop_t fatigue_strength_coef;
UF_SF_multi_prop_t fatigue_strength_exp;
UF_SF_multi_prop_t fatigue_ductility_coef;
UF_SF_multi_prop_t fatigue_ductility_exp;
};
typedef struct UF_SF_material_fatigue_s UF_SF_material_fatigue_prop_t,
*UF_SF_material_fatigue_prop_p_t;
#define UF_SF_MATERIAL_LABELS \
/* Isotropic items. */ \
LABEL_TEXT i_mass_density_label = "Mass Density"; \
LABEL_TEXT i_reference_temp_label = "Reference Temperature"; \
LABEL_TEXT i_plastic_strain_label = "Plastic Strain Ratio"; \
/* */ \
LABEL_TEXT i_youngs_label = "Young`s Modulus"; \
LABEL_TEXT i_poisson_label = "Poisson`s Ratio"; \
LABEL_TEXT i_shear_mod_label = "Shear Modulus"; \
LABEL_TEXT i_therm_coeff_label = "Thermal Expansion Coefficient"; \
LABEL_TEXT i_therm_conduct_label = "Thermal Conductivity"; \
LABEL_TEXT i_specific_heat_label = "Specific Heat"; \
LABEL_TEXT i_latent_heat_label = "Latent Heat"; \
LABEL_TEXT i_phase_temperature_label = "Phase Change Temperature"; \
LABEL_TEXT i_phase_temperature_range_label = "Phase Change Temperature Range"; \
LABEL_TEXT i_phase_specific_heat_label = "Specific Heat above Phase Change"; \
LABEL_TEXT i_ir_scattering_coeff_label = "IR Scattering Coefficient"; \
LABEL_TEXT i_solar_scattering_coeff_label = "Solar Scattering Coefficient"; \
LABEL_TEXT i_ir_extinction_coeff_label = "IR Extinction Coefficient"; \
LABEL_TEXT i_solar_extinction_coeff_label = "Solar Extinction Coefficient"; \
LABEL_TEXT i_electrical_resistivity_label = "Electrical Resistivity"; \
LABEL_TEXT i_yield_label = "Yield Strength"; \
LABEL_TEXT i_ultimate_tensile_label = "Ultimate Tensile Strength"; \
LABEL_TEXT i_max_stress_tension_label = "Max Allowable Stress in Tension"; \
LABEL_TEXT i_max_stress_compression_label = "Max Allowable Stress in Compression"; \
LABEL_TEXT i_max_in_plane_shear_stress_label = "Max Allowable in plane Shear Stress"; \
LABEL_TEXT i_max_strain_tension_label = "Max Allowable Strain in Tension"; \
LABEL_TEXT i_max_strain_compression_label = "Max Allowable Strain in Compression"; \
LABEL_TEXT i_max_in_plane_shear_strain_label = "Max Allowable in plane Shear Strain"; \
LABEL_TEXT i_tsai_wu_interaction_label = "Tsai-Wu Interaction Coefficient (F12)"; \
LABEL_TEXT i_damping_coeff_label = "Damping Coefficient"; \
LABEL_TEXT i_work_harden_label = "Work Hardening"; \
LABEL_TEXT i_forming_limit_label = "Forming Limit"; \
LABEL_TEXT i_stress_strain_label = "Stress/Strain"; \
LABEL_TEXT i_fatigue_strength_coef_label = "Fatigue Strength Coefficient"; \
LABEL_TEXT i_fatigue_strength_exp_label = "Fatigue Strength Exponent"; \
LABEL_TEXT i_fatigue_ductility_coef_label = "Fatigue Ductility Coefficient"; \
LABEL_TEXT i_fatigue_ductility_exp_label = "Fatigue Ductility Exponent"; \
\
/* Orthotropic items. */ \
LABEL_TEXT o_mass_density_label = "Mass Density"; \
LABEL_TEXT o_reference_temp_label = "Reference Temperature"; \
/* */ \
LABEL_TEXT o_youngs_label = "Young`s Modulus"; \
LABEL_TEXT o_poisson_label = "Poisson`s Ratio"; \
LABEL_TEXT o_shear_mod_label = "Shear Modulus"; \
LABEL_TEXT o_therm_coeff_label = "Thermal Expansion Coefficient"; \
LABEL_TEXT o_therm_conduct_label = "Thermal Conductivity"; \
LABEL_TEXT o_specific_heat_label = "Specific Heat"; \
LABEL_TEXT o_latent_heat_label = "Latent Heat"; \
LABEL_TEXT o_phase_temperature_label = "Phase Change Temperature"; \
LABEL_TEXT o_phase_temperature_range_label = "Phase Change Temperature Range"; \
LABEL_TEXT o_phase_specific_heat_label = "Specific Heat above Phase Change"; \
LABEL_TEXT o_ir_scattering_coeff_label = "IR Scattering Coefficient"; \
LABEL_TEXT o_solar_scattering_coeff_label = "Solar Scattering Coefficient"; \
LABEL_TEXT o_ir_extinction_coeff_label = "IR Extinction Coefficient"; \
LABEL_TEXT o_solar_extinction_coeff_label = "Solar Extinction Coefficient"; \
LABEL_TEXT o_electrical_resistivity_label = "Electrical Resistivity"; \
LABEL_TEXT o_max_stress_tension_label = "Max Stress in Tension"; \
LABEL_TEXT o_max_stress_compression_label = "Max Stress in Compression"; \
LABEL_TEXT o_max_in_plane_shear_stress_label = "Max in plane Shear Stress"; \
LABEL_TEXT o_max_strain_tension_label = "Max Strain in Tension"; \
LABEL_TEXT o_max_strain_compression_label = "Max Strain in Compression"; \
LABEL_TEXT o_max_in_plane_shear_strain_label = "Max in plane Shear Strain"; \
LABEL_TEXT o_tsai_wu_interaction_label = "Tsai-Wu Interaction Coefficient (F12)"; \
LABEL_TEXT o_damping_coeff_label = "Damping Coefficient"; \
\
/* Anisotropic items. */ \
LABEL_TEXT mass_density_label = "Mass Density"; \
LABEL_TEXT reference_temp_label = "Reference Temperature"; \
LABEL_TEXT shear_moduli_label = "Material Moduli"; \
LABEL_TEXT therm_expan_coeff_label = "Thermal Expansion Coefficient"; \
LABEL_TEXT therm_conduct_label = "Thermal Conductivity"; \
LABEL_TEXT specific_heat_label = "Specific Heat"; \
LABEL_TEXT damping_coeff_label = "Damping Coefficient"; \
\
/* Fluid items. */ \
LABEL_TEXT f_mass_density_label = "Mass Density"; \
LABEL_TEXT f_therm_conduct_label = "Thermal Conductivity"; \
LABEL_TEXT f_therm_coeff_label = "Thermal Expansion Coefficient"; \
LABEL_TEXT f_dynamic_visc_label = "Dynamic Viscosity"; \
LABEL_TEXT f_spec_heat_press_label = "Specific Heat Constant Pressure"; \
LABEL_TEXT f_gas_constant_label = "Gas Constant"; \
LABEL_TEXT f_bulk_modulus_label = "Bulk Modulus"; \
LABEL_TEXT f_sound_speed_label = "Speed of Sound"; \
LABEL_TEXT f_damping_coeff_label = "Damping Coefficient"; \
LABEL_TEXT f_molar_mass_label = "Molar Mass";
/* Names of each type shown to the user. */
#define UF_SF_LANG_ANALYSIS_STRUCTURAL_STR "Structural"
#define UF_SF_LANG_ANALYSIS_THERMAL_STR "Thermal"
#define UF_SF_LANG_ANALYSIS_FLOW_STR "Flow"
#define UF_SF_LANG_ANALYSIS_COUPLED_STR "Coupled"
#define UF_SF_LANG_ANALYSIS_MAPPING_STR "Mapping"
/* Names of each type shown to the user. */
#define UF_SF_LANG_ANALYSIS_SIMPLE_STR "Simple"
#define UF_SF_LANG_ANALYSIS_AXISYM_STR "Axisymmetric"
/* Names of each type shown to the user. */
#define UF_SF_LANG_ANALYSIS_LINEAR_STR "Linear"
#define UF_SF_LANG_ANALYSIS_NONLINEAR_STR "Non-Linear"
/* Names of each type shown to the user. */
#define UF_SF_LANG_ANALYSIS_STEADY_STR "Steady-state"
#define UF_SF__MAX_EXP_TAGS 10
/***********************************************************************
This Structure contains the data required to define/describe
a beam/bar section. Sections are define in the YZ plane.
**********************************************************************/
struct UF_SF_section_data_s
{
UF_SF_section_type_t type; /* indicates the type of section described,
UF_SF_SECTION_TWREC = Thin wall, rectangle
UF_SF_SECTION_TWCYL = Thin wall, cylinder
UF_SF_SECTION_TWCHA = Thin wall, channel
UF_SF_SECTION_TWHAT = Thin wall, hat
UF_SF_SECTION_TWIBE = Thin wall, I beam
UF_SF_SECTION_SOCYL = Solid, cylinder
UF_SF_SECTION_SOREC = Solid, rectangle
UF_SF_SECTION_KEYIN = User defined
UF_SF_SECTION_USER_TW
= User Defined TW
UF_SF_SECTION_USER_SOLID
= User Defined Solid*/
double origin[3]; /* Location of section origin */
double x_dir[3]; /* Orientation of sections x directions (along elm) */
double y_dir[3]; /* Orientation of sections y directions
z_dir = x_dir X y_dir */
logical offset_set[3]; /* Indicates if the coresponding offset was
set (TRUE) or was given the default (FALSE).
[0] == x offset of section, always = FALSE */
double offset[3]; /* (y,z) offset of section
[0] == x offset of section, always = 0.0 */
tag_t geometry; /* Tag of geometry on which section is defined
(i.e the curve tag along which beams are defined
in the case where elements are created between
geometry "geometry" will be the mesh_recipe. */
tag_t exp_tag[UF_SF__MAX_EXP_TAGS]; /* An array of tags to Expression
defining the sections dimension or
section properties depending on
the type of section */
};
typedef struct UF_SF_section_data_s UF_SF_section_data_t,
*UF_SF_section_data_p_t;
/************************************************************************
This Structure contains the data required to define the edge
density for a curve/edge object
************************************************************************/
struct UF_SF_edge_density_data_s
{
UF_SF_edge_density_type_t type; /* indicates the type of density (size or
number). */
double size; /* The number of elements on the edge/curve is calculated
automatically from the length of the edge/curve and the
element size. If this option is set, the value of number
is disregarded. */
int number; /* The number of elements on the edge/curve is calculated
automatically from the length of the edge/curve and the
element size. If this option is set, the value of number is
disregarded. */
};
typedef struct UF_SF_edge_density_data_s UF_SF_edge_density_data_t,
*UF_SF_edge_density_data_p_t;
/**************************************************************************
This structure contains the data required to define/describe
a smart point.
**************************************************************************/
struct UF_SF_HPT_location_data_s
{
UF_SF_HPT_method_t method; /* Indicates the how the smart point is defined.
UF_SF_HPT_ON_CURVE
UF_SF_HPT_BASEPT_AND_OFFSET
UF_SF_HPT_CENTER_OF_CONIC
UF_SF_HPT_CURVE_INTERSECTION
UF_SF_HPT_ON_SURFACE */
UF_SF_section_type_t type; /* How the base is defined:
UF_SF_numeric_method_t. */
double origin[3]; /* Location of base point
when baseMethod = UF_SF_NUMERIC. */
double x_dir[3]; /* when baseMethod = UF_SF_EXPRESSION. */
double y_dir[3]; /* How the offset is defined:
when method = SFEM_HPT_BASEPT_AND_OFFSET */
logical offset_set[3]; /* Offset vector,
when baseMethod = UF_SF_NUMERIC. */
double offset[3]; /* Offset vector, when baseMethod = UF_SF_EXPRESSION. */
tag_t geometry; /* First object tag.
Curve tag when method = SFEM_HPT_ON_CURVE
First curve tag when method = SFEM_HPT_CURVE_INTERSECTION
Conic tag when method = SFEM_HPT_CENTER_OF_CONIC */
tag_t exp_tag[UF_SF__MAX_EXP_TAGS]; /* Seconde curve tag when method
= SFEM_HPT_CURVE_INTERSECTION */
};
typedef struct UF_SF_HPT_location_data_s UF_SF_HPT_location_data_t,
*UF_SF_HPT_location_data_p_t;
/********************************* ATM parameters *****************************/
struct UF_SF_atm_mesh_parameters_data_s
{
UF_SF_atm_element_types_t element_type; /* TETRA or TETRA_10 */
UF_SF_atm_edge_shape_types_t edge_shape; /* LINEAR, CURVED or MIXED */
double def_elem_size; /* Default Element Size*/
double target_angle; /* 0. < ang <= 90. */
int curvature_scaling;/* 1 = OFF , 0 = ON */
int auto_constraining;/* 1 = OFF , 0 = ON */
tag_t elem_desc_tag; /* element descri(p)tor tag*/
};
typedef struct UF_SF_atm_mesh_parameters_data_s
UF_SF_atm_mesh_parameters_data_t,
*UF_SF_atm_mesh_parameters_data_p_t;
struct UF_SF_sfqm_param_data_s
{
double edge_match_tol; /* Distance tolerance value used to find the
matched edges. The distance is measured from
the mid point location of one edge to the mid
point of the other edge. The default value
is 0.02. */
double node_uniq_tol; /* Specifies the maximum distance allowed between
nodes before they are merged when uniqueness
testing is active. The default is 0.0001. */
double smooth_tol; /* Distance in model units from old position to
new position for the node moved the farthest
during one iteration of the smoothing
algorithm. The default value is 0.01. */
double on_surf_tol; /* Controls the maximum distance in model units
that a node created during Scenario Shell
Mesher may lie from its closest point on the
surface. The default value is 0.001. */
int trans_rows; /* Allows to control the number of rows that will
be used to bridge the gap between elements of
different sizes. The default value is 3. */
};
typedef struct UF_SF_sfqm_param_data_s UF_SF_sfqm_param_data_t,
*UF_SF_sfqm_param_data_p_t;
struct UF_SF_sfqm_mesh_data_s
{
UF_SF_sfqm_elem_type_t elem_type; /* The type of element chosen. */
double elem_size; /* The size of the element. */
int smart_edge_seeding;
UF_SF_sfqm_param_data_p_t mesh_param_data_p; /* Pointer to the mesh
parameter data structure, containing
the values for the given parameters. */
int format_mesh; /* 0 = OFF , 1 = ON */
int mapped_mesh; /* 0 = OFF , 1 = ON */
int mesh_transition; /* 0 = OFF , 1 = ON */
int mesh_method; /* 0 = Automatic, 1 = Paver */
};
typedef struct UF_SF_sfqm_mesh_data_s UF_SF_sfqm_mesh_data_t,
*UF_SF_sfqm_mesh_data_p_t;
struct UF_SF_1d_mesh_data_s
{
UF_SF_1D_element_type_t element_type; /* Type of element for solid meshing.
The following tetrahedral elements
are supported:
UF_SF_ATM_SYSTEM_DEFAULT_TYPE
UF_SF_ATM_TETRA
UF_SF_ATM_TETRA_10 */
UF_SF_1D_density_type_t density_type; /* Type of edge density
UF_SF_1D_EDGE_DENSITY_NUMBER
UF_SF_1D_EDGE_DENSITY_SIZE
UF_SF_1D_EDGE_DENSITY_SMART
*/
double edge_density; /* Value of edge density. */
int merge_node_option; /* 0 - OFF, 1 - ON */
double node_unique_tol; /* Value of node unique
tolerance. */
};
typedef struct UF_SF_1d_mesh_data_s UF_SF_1d_mesh_data_t,
*UF_SF_1d_mesh_data_p_t;
struct UF_SF_ef_conn_info_s
{
tag_t element_des_tag; /* Set to NULL_TAG */
UF_SF_1D_density_type_t density_type; /* Type of edge density
UF_SF_1D_EDGE_DENSITY_NUMBER
UF_SF_1D_EDGE_DENSITY_SIZE
UF_SF_1D_EDGE_DENSITY_SMART
*/
double edge_density; /* Value of edge density. */
int mesh_option; /* 0 for Glue mesh
1 for Match mesh */
int num_edges; /* Number of edges */
tag_p_t edge_tags; /* Edge tags array */
int num_faces; /* Number of faces */
tag_p_t face_tags; /* Face tags array */
};
typedef struct UF_SF_ef_conn_info_s UF_SF_ef_conn_info_t,
*UF_SF_ef_conn_info_p_t;
struct UF_SF_contact_mesh_data_s
{
char *element_name; /* refer to uf_sf_lang_names.h */
tag_t element_descritor_tag; /* Set it to NULL_TAG */
int align_target_edge_node; /* 0 - Equal Distance
1 - Minimum Distance or Normal To */
int target_edge_node_align_method; /* 0 - Minimum Distance
1 - Normal To */
int number_of_elms; /* required */
int gap_tol_option; /* 0 - Do not apply tol
1 - Apply gap tolerance */
double gap_tolerance; /* Gap tolerance option
0: Don't apply tolerance
1: Apply tolerance
*/
tag_t contact_edge; /* Tag of the contact edge. */
UF_SF_mesh_geom_meshdir_t contact_edge_mesh_dir;
/* Direction of the mesh for the
contact edge:
UF_SF_MG_MESHDIR_FROM_START
UF_SF_MG_MESHDIR_FROM_END
*/
double contact_edge_start_limit; /* Limit of edge starting for the
contact edge. */
double contact_edge_end_limit; /* Limit of edge ending for the contact
edge. */
tag_t target_edge; /* Tag of the target edge. */
UF_SF_mesh_geom_meshdir_t target_edge_mesh_dir;
/* Direction of the mesh for the target
edge:
UF_SF_MG_MESHDIR_FROM_START
UF_SF_MG_MESHDIR_FROM_END
*/
double target_edge_start_limit; /* set start limits to 0 and end limits
to 1 to build contact mesh between
entire length of the edges. */
double target_edge_end_limit; /* Limit of edge ending for the target
edge. */
};
typedef struct UF_SF_contact_mesh_data_s UF_SF_contact_mesh_data_t,
*UF_SF_contact_mesh_data_p_t;
struct UF_SF_orientation_data_s
{
tag_t face_tag; /* tag of a solid face.
The y vector will be defined normal to this face.
If this is a NULL_TAG use origin, x_dir, and y_dir
to create csys and use it to define y orientation. */
double origin[3]; /* origin info */
double x_dir[3]; /* x direction vector */
double y_dir[3]; /* y direction vector */
};
typedef struct UF_SF_orientation_data_s UF_SF_orientation_data_t,
*UF_SF_orientation_data_p_t;
struct UF_SF_section_prop_list_s
{
int section_type; /* Type of section:
UF_SF_SECTION_TWREC for Thin wall, rectangle
UF_SF_SECTION_TWCYL for Thin wall, cylinder
UF_SF_SECTION_TWCHA for Thin wall, channel
UF_SF_SECTION_TWHAT for Thin wall, hat
UF_SF_SECTION_TWIBE for Thin wall, I beam
UF_SF_SECTION_SOCYL for Solid, cylinder
UF_SF_SECTION_SOREC for Solid, rectangle
UF_SF_SECTION_KEYIN for User defined.
UF_SF_SECTION_USER_TW forUser Defined TW
UF_SF_SECTION_USER_SOLID for User Defined Solid
*/
double bcenter; /* Breadth of section. */
double hcenter; /* Height of section. */
double thicknesst; /* Thickness of section. */
double b1center; /* Flange breadth of hat & ibeam sections. */
double thicknesstw; /* Web thickness of ibeam section. */
double radius; /* Radius of TWCYL and SOCYL sections. */
double area; /* Area of section. */
double Izz; /* Moment of Inertia about x-axis. */
double Iyy; /* Moment of Inertia about y-axis. */
double Izy; /* Moment of Inertia about xy-axis. */
double torsion; /* Torsional coefficient. */
double warp; /* Warping coefficient. */
double y_eccentricity; /* Y Eccentricity. */
double z_eccentricity; /* Z Eccentricity. */
double hydro_diameter; /* Hydraulic Diameter of section. */
double perimeter; /* Perimeter of section. */
double wall_thickness; /* Wall Thickness of section. */
};
typedef struct UF_SF_section_prop_list_s UF_SF_section_prop_list_t,
*UF_SF_section_prop_list_p_t;
/* General properties of 1D Element Sections.
First are the numeric values, followed by corresponding expressions
tags, when any property has an expression.
If there is no expression, then the tag is NULL_TAG.
*/
struct UF_SF_section_properties_s
{
int section_type; /* Type of section:
UF_SF_SECTION_TWREC for Thin wall, rectangle
UF_SF_SECTION_TWCYL for Thin wall, cylinder
UF_SF_SECTION_TWCHA for Thin wall, channel
UF_SF_SECTION_TWHAT for Thin wall, hat
UF_SF_SECTION_TWIBE for Thin wall, I beam
UF_SF_SECTION_SOCYL for Solid, cylinder
UF_SF_SECTION_SOREC for Solid, rectangle
UF_SF_SECTION_KEYIN for User defined.
UF_SF_SECTION_USER_TW forUser Defined TW
UF_SF_SECTION_USER_SOLID for User Defined Solid
*/
double bcenter; /* Breadth of section. */
double hcenter; /* Height of section. */
double thicknesst; /* Thickness of section. */
double b1center; /* Flange breadth of hat & ibeam sections. */
double thicknesstw; /* Web thickness of ibeam section. */
double radius; /* Radius of TWCYL and SOCYL sections. */
double area; /* Area of section. */
double Izz; /* Moment of Inertia about x-axis. */
double Iyy; /* Moment of Inertia about y-axis. */
double Izy; /* Moment of Inertia about xy-axis. */
double torsion; /* Torsional coefficient. */
double warp; /* Warping coefficient. */
double y_eccentricity; /*Y Eccenctricity */
double z_eccentricity; /*Z Eccenctricity */
double hydro_diameter; /*Hydraulic Diameter of section. */
double perimeter; /*Perimeter of section. */
double wall_thickness; /*Wall Thickness of section. */
tag_t bcenter_exp; /* Breadth of section. */
tag_t hcenter_exp; /* Height of section. */
tag_t thicknesst_exp; /* Thickness of section. */
tag_t b1center_exp; /* Flange breadth of hat & ibeam sections. */
tag_t thicknesstw_exp; /* Web thickness of ibeam section. */
tag_t radius_exp; /* Radius of TWCYL and SOCYL sections. */
tag_t area_exp; /* Area of section. */
tag_t Izz_exp; /* Moment of Inertia about x-axis. */
tag_t Iyy_exp; /* Moment of Inertia about y-axis. */
tag_t Izy_exp; /* Moment of Inertia about xy-axis. */
tag_t torsion_exp; /* Torsional coefficient. */
tag_t warp_exp; /* Warping coefficient. */
tag_t y_eccentricity_exp; /*Y Eccentricity */
tag_t z_eccentricity_exp; /*Z Eccentricity */
tag_t hydro_diameter_exp; /*Hydraulic Diameter of section. */
tag_t perimeter_exp; /*Perimeter of section. */
tag_t wall_thickness_exp; /*Wall Thickness of section. */
tag_t sketch_tag; /* For user defined thin wall. */
tag_t face_tag; /* For user defined solid. */
tag_t vector_tag; /* For user defined solid horizonal direction.*/
};
typedef struct UF_SF_section_properties_s UF_SF_section_properties_t,
*UF_SF_section_properties_p_t;
/* Properties unique to user defined sections which are
not passed to the FEA solver. These are user feedback
only.
*/
struct UF_SF_user_defined_section_properties_s
{
double principal_angle; /* Principal angle in degrees. */
double principal_mom_inertia[2]; /*Principal Moment of Inertia. */
double centroid[2]; /* Centroid location in global coordinates. */
double shear_center[2]; /* Shear center in global coordinates. */
};
typedef struct UF_SF_user_defined_section_properties_s
UF_SF_user_defined_section_properties_t,
*UF_SF_user_defined_section_properties_p_t;
struct UF_SF_section_src_list_s
{
double C1; /* Y location of the first stress recovery point. */
double C2; /* Z location of the first stress recovery point. */
double D1; /* Y location of the second stress recovery point. */
double D2; /* Z location of the second stress recovery point. */
double E1; /* Y location of the third stress recovery point. */
double E2; /* Z location of the third stress recovery point. */
double F1; /* Y location of the fourth stress recovery point. */
double F2; /* Z location of the fourth stress recovery point. */
};
typedef struct UF_SF_section_src_list_s UF_SF_section_src_list_t,
*UF_SF_section_src_list_p_t;
/* Stress recovery locations of 1D Element Sections.
First are the numeric values, followed by corresponding expressions
tags, when any location has an expression.
If there is no expression, then the tag is NULL_TAG.
*/
struct UF_SF_section_src_properties_s
{
double C1; /* Y location of the first stress recovery point. */
double C2; /* Z location of the first stress recovery point. */
double D1; /* Y location of the second stress recovery point. */
double D2; /* Z location of the second stress recovery point. */
double E1; /* Y location of the third stress recovery point. */
double E2; /* Z location of the third stress recovery point. */
double F1; /* Y location of the fourth stress recovery point. */
double F2; /* Z location of the fourth stress recovery point. */
tag_t C1_exp; /* Y location of the first stress recovery point. */
tag_t C2_exp; /* Z location of the first stress recovery point. */
tag_t D1_exp; /* Y location of the second stress recovery point. */
tag_t D2_exp; /* Z location of the second stress recovery point. */
tag_t E1_exp; /* Y location of the third stress recovery point. */
tag_t E2_exp; /* Z location of the third stress recovery point. */
tag_t F1_exp; /* Y location of the fourth stress recovery point. */
tag_t F2_exp; /* Z location of the fourth stress recovery point. */
};
typedef struct UF_SF_section_src_properties_s UF_SF_section_src_properties_t,
*UF_SF_section_src_properties_p_t;
/****************************************************************************
* Structure defining mesh visualization attributes. *
****************************************************************************/
struct UF_SF_mesh_visuals_s
{
int color; /* Primary element color */
int shade_mode; /* Different modes of shading:
0 - never shade
1 - shade when any shade mode is on
2 - shade when partial shaded mode is on
3 - shade when fully shaded mode is on */
int shade_edge_color; /* Element edge color when shaded */
int shrink_factor; /* Element shrink percentage 0 -> 100
0 - no shrinking
100 - shrinks elements to a point */
int normals; /* Valid for 2D elements
0 - no element normals
1 - element directional tails
2 - element vectors */
int normals_color; /* Normal display color */
int edge_visibility_sw; /* Element edge visibility switch:
0 - do not show elemement edges
1 - show element edges */
int text_display_sw; /* Element text display switch:
0 - do not show text
1 - show text */
int thick_shell_sw; /* Element thick shell display switch:
0 - do not show 2D elements as thick shells
1 - show 2D elements as thick shells */
/* The following only apply to meshes created by a call to UF_SF_create_disp_mesh */
int show_analysis; /* Show analysis results or not
* 0 - do not show analysis results
* 1 - show analysis results */
int show_deformed; /* Show deformation or not .
* 0 - do not show deformed results
* 1 - show deformed results */
double deformed_scale; /* Scale value for the deformation magnitude
* if show deformation is requested */
};
typedef struct UF_SF_mesh_visuals_s UF_SF_mesh_visuals_t, *UF_SF_mesh_visuals_p_t;
typedef struct UF_SF_AMM_mesh_parameters_s *UF_SF_AMM_mesh_parameters_p_t;
/* Idealize types */
typedef void *UF_SF_idealize_parms_p_t;
typedef void *UF_SF_idealize_region_p_t;
/*****************************************************************************
Structure defining the parameters of a defeature feature.
******************************************************************************/
struct UF_SF_defeature_parms_s
{
int num_ret_faces; /* Number of retained faces in the
retained_faces array. Can be 0
*/
tag_t *retained_faces; /* Array of retained faces.
Will be NULL if num_ret_faces == 0
*/
int num_rem_faces; /* Number of removed faces in the
removed_faces array. Can be 0
*/
tag_t *removed_faces; /* Array of removed faces.
Will be NULL if num_rem_faces == 0
*/
UF_SF_idealize_region_p_t region_parms_p; /* Pointer to an instance of
UF_SF_idealize_region_t structure
that defines a region on the
body or NULL.
*/
};
typedef struct UF_SF_defeature_parms_s UF_SF_defeature_parms_t, * UF_SF_defeature_parms_p_t;
struct UF_SF_resulting_face_pairs_s
{
tag_t face1;
tag_t face2;
UF_SF_face_subdiv_status_t relative_status;
};
typedef struct UF_SF_resulting_face_pairs_s UF_SF_resulting_face_pairs_t,
*UF_SF_resulting_face_pairs_p_t;
struct UF_SF_SURFACE_CONTACT_ANS_data_s {
int closed_stiff_opt; /* closed stiffness option */
double closed_stiff; /* closed stiffness */
int open_stiff_opt; /* open stiffness option */
double open_stiff; /* open stiffness */
int init_closure_opt; /* initial closure option */
double init_closure; /* initial closure */
int norm_toler_opt; /* normal tolerance option */
double norm_toler; /* normal tolerance */
double surf_cont_offset; /* surface contact offset */
double mu; /* Coefficient of friction */
int cont_type; /* Contact type Standard,Rough*/
} ;
typedef struct UF_SF_SURFACE_CONTACT_ANS_data_s UF_SF_SURFACE_CONTACT_ANS_data_t,
*UF_SF_SURFACE_CONTACT_ANS_data_p_t;
struct UF_SF_SURFACE_CONTACT_NAS_data_s {
double pre_load; /* pre load */
double closed_stiff; /* closed stiffness */
double open_stiff; /* open stiffness */
double kinetic_fric; /* kenetic friction coefficient */
double static_fric; /* static friction coefficient */
double max_pen; /* maximum peneration */
int cont_type; /* Contact type - Standard,Rough*/
} ;
typedef struct UF_SF_SURFACE_CONTACT_NAS_data_s UF_SF_SURFACE_CONTACT_NAS_data_t,
*UF_SF_SURFACE_CONTACT_NAS_data_p_t;
struct UF_SF_SURFACE_CONTACT_UGFEA_data_s{
double pre_load;
double closed_stiff;
double open_stiff;
double kinetic_fric;
double static_fric;
double max_pen;
int cont_type;
};
typedef struct UF_SF_SURFACE_CONTACT_UGFEA_data_s UF_SF_SURFACE_CONTACT_UGFEA_data_t,
*UF_SF_SURFACE_CONTACT_UGFEA_data_p_t;
/* Defines are left for campatability
Please use UF_SFANS_algorithm_t instead */
#define FRONTAL_SOLVER 0
#define PCG_SOLVER 1
#define JCG_SOLVER 2
#define SPARSE_SOLVER 3
#define JCG_PCG_SOLVER 4
#define JCG_FRONTAL_SOLVER 5
#define SUBSPACE_MODOPT 6
#define LANCZOS_MODOPT 7
#define POWERDYN_MODOPT 8
#define UF_SFFEA_ALGORITHM_NUM_TYPES 5
struct UF_SFANS_solver_data_s
{
int formatChoice;
int algoChoice;
int num_roots;
double upper_limit;
double lower_limit;
double temperature;
};
typedef struct UF_SFANS_solver_data_s UF_SFANS_solver_data_t, *UF_SFANS_solver_data_p_t;
struct UF_SFAS_solver_data_s
{
int algolChoice;
int typeChoice;
int codeChoice;
int echoChoice;
int num_roots;
int densityChoice;
int formatChoice;
int job_time;
double temperature;
tag_t temperature_unit_tag;
double upper_limit;
int max_iter;
double err_tol_percent;
int min_pvalue;
int max_pvalue;
double lower_limit;
double sol_tol_val ;
char jobname[ MAX_FSPEC_BUFSIZE ];
char titlestring[ MAX_FSPEC_BUFSIZE ];
char scratch_path[ MAX_FSPEC_BUFSIZE ];
int memory_requested ;
int num_design_cycles;
int frequency_mode_number;
int optimizationChoice;
int AdaptOpt; /* Added to handle Opt in Adaptivity */
int OptTypeChoice;
UF_SFOPT_solver_type_t solver_types[(int)UF_MAX_NUM_SOLVER_TYPES];
int reset_node_elm_id_Choice;
int save_after_reset_Choice;
int prt_displacements;
int prt_stresses;
int prt_strains;
int prt_strain_energies;
int prt_elforces;
int prt_reactforces;
int prt_applied_loads;
int prt_fluxes;
int prt_temps;
double plate_stiffness;
int inrelChoice;
int inrel_support_node_id[3];
SFNAS_inter_output_types_t intout_flag;
int componentChoice ;
int nl_ninc;
int adaptChoice;
int adapt_max_itr;
double adapt_per_error;
double adapt_dev_error;
double adapt_elem_size;
int PrintOutputLevel;
int start_elem_id;
int start_node_id;
int largeDispChoice;
logical thermstruct;
/* Flag set to indicate whether thermostruct env.. this is needed since during solution time
the env will be changed to structures and then to thermal */
int modeChoice;
int fatigueChoice;
int fatigue_analysis;
int fatigue_stress_crit;
int fatigue_stress_type;
int fatigue_fatigue_crit;
int fatigue_cycles;
double fatigue_k_factor;
int fatigue_life_crit;
};
typedef struct UF_SFAS_solver_data_s UF_SFAS_solver_data_t, *UF_SFAS_solver_data_p_t;
/*****************************************************************************
Structure defining the parameters of a user defined midsurface feature.
******************************************************************************/
struct UF_SF_midsrf_user_parms_s
{
tag_t solid_body; /* Tag of the target solid body. */
int num_sheet_bodies; /* Number of sheet bodies. */
tag_t *sheet_bodies_a; /* Array of sheet body tags that will define the
midsurface of the selected target solid body.
The size of the array is num_sheet_bodies */
double thickness; /* Thickness value to be used at formatting time
whenever the automatic thickness extraction fails. */
double const_thickness; /* Constant thickness of all nodes of the midsurface.
If this is provided by the user then this is will be
the value used for all nodes at format time in which
case the value of the thickness field will be unused.
This field is not currently used. */
};
typedef struct UF_SF_midsrf_user_parms_s UF_SF_midsrf_user_parms_t, *UF_SF_midsrf_user_parms_p_t;
struct UF_SF_geom_options_s
{
logical fSyncPoints;
logical fSyncCsys;
logical fSyncLines;
logical fSyncArcs;
logical fSyncSplines;
logical fSyncSketchCurves;
logical fSyncConics;
};
typedef struct UF_SF_geom_options_s UF_SF_geom_options_t, *UF_SF_geom_options_p_t;
/*
UF_SF_MAX_STRING_LEN is being deprecated because NX is moving to support
multibyte characters. User written programs should start using the
new definitions:
MAX_LINE_BUFSIZE should be used for buffer allocations and memory
allocations, e.g. char my_data[MAX_LINE_BUFSIZE];
MAX_LINE_NCHARS should be used to limit the number of characters in
a buffer. NX code will enforce these limits.
New routines have been added which will help in this transition:
UF_TEXT_count_characters() will count the number of characters in a buffer.
UF_TEXT_terminate_chars() will terminate a C string after the given number of characters.
*/
/* */
#define UF_SF_MAX_STRING_LEN (MAX_LINE_BUFSIZE)
/* */
#endif /* UF_SF_TYPES__H_INCLUDED */