int GiD_fWriteResultBlock( GiD_FILE fd, GP_CONST char *result_name, GP_CONST char *analysis_name, double step_value,
GiD_ResultType result_type, GiD_ResultLocation result_location,
GP_CONST char *gauss_point_name, GP_CONST char *range_table_name, int num_component_names,
GP_CONST char *list_component_names[],
int num_result_values, GP_CONST int *list_result_ids,
// list_component_values ===
// num_component_values == 1 --> scalar_array
// num_component_values == 2 --> VxVyVz_array
// num_component_values == 6 --> SxxSyySxySzzSxzSyz_array
// ...
int num_component_values, GP_CONST double *list_component_values );
Description:
Write the results values array. This functions include GiD_fBeginResult() and GiD_fEndResult().
If list_result_ids is omited, i.e. == NULL , then result value's id’s are assumed to be 1..num_result_values .
Parameters:
list_ids is the array of node id's and expected to be num_points in size.
xyz_array is the array consecutive x, y and z coordinates of the num_points nodes, and it is expected to have num_points * 3 doubles.
Example:
C/C++ as in testpost_fd.c :
int ids[ NUM_NODES ];
double xyz[ NUM_NODES * 3 ];
for ( int i = 0; i < NUM_NODES; i++ ) {
ids[ i ] = G_nodes[ i ].id;
xyz[ i * 3 + 0 ] = G_nodes[ i ].x;
xyz[ i * 3 + 1 ] = G_nodes[ i ].y;
xyz[ i * 3 + 2 ] = G_nodes[ i ].z;
}
GiD_fWriteCoordinatesIdBlock( fdm, NUM_NODES, ids, xyz );