#include <NestedRefine.hpp>

Collaboration diagram for moab::NestedRefine:

Classes
struct	codeperf

struct	intFEdge
	Helper. More...

struct	level_memory

struct	pmat

struct	refPatterns
	refPatterns More...

Public Member Functions
	NestedRefine (Core impl, ParallelComm comm=0, EntityHandle rset=0)

	~NestedRefine ()

ErrorCode	initialize ()

ErrorCode	generate_mesh_hierarchy (int num_level, int *level_degrees, std::vector< EntityHandle > &level_sets, bool optimize=false)
	Generate a mesh hierarchy. More...

ErrorCode	get_connectivity (EntityHandle ent, int level, std::vector< EntityHandle > &conn)
	Given an entity and its level, return its connectivity. More...

ErrorCode	get_coordinates (EntityHandle verts, int num_verts, int level, double coords)
	Given a vector of vertices and their level, return its coordinates. More...

ErrorCode	get_adjacencies (const EntityHandle source_entity, const unsigned int target_dimension, std::vector< EntityHandle > &target_entities)
	Get the adjacencies associated with an entity. More...

ErrorCode	child_to_parent (EntityHandle child, int child_level, int parent_level, EntityHandle *parent)

ErrorCode	parent_to_child (EntityHandle parent, int parent_level, int child_level, std::vector< EntityHandle > &children)

ErrorCode	vertex_to_entities_up (EntityHandle vertex, int vert_level, int parent_level, std::vector< EntityHandle > &incident_entities)

ErrorCode	vertex_to_entities_down (EntityHandle vertex, int vert_level, int child_level, std::vector< EntityHandle > &incident_entities)

ErrorCode	get_vertex_duplicates (EntityHandle vertex, int level, EntityHandle &dupvertex)

bool	is_entity_on_boundary (const EntityHandle &entity)

ErrorCode	exchange_ghosts (std::vector< EntityHandle > &lsets, int num_glayers)

ErrorCode	update_special_tags (int level, EntityHandle &lset)

Public Attributes
codeperf	timeall

Protected Member Functions
int	get_index_from_degree (int degree)

ErrorCode	estimate_hm_storage (EntityHandle set, int level_degree, int cur_level, int hmest[4])

ErrorCode	create_hm_storage_single_level (EntityHandle *set, int cur_level, int estL[4])

ErrorCode	generate_hm (int level_degrees, int num_level, EntityHandle hm_set, bool optimize)

ErrorCode	construct_hm_entities (int cur_level, int deg)

ErrorCode	construct_hm_1D (int cur_level, int deg)

ErrorCode	construct_hm_1D (int cur_level, int deg, EntityType type, std::vector< EntityHandle > &trackverts)

ErrorCode	construct_hm_2D (int cur_level, int deg)

ErrorCode	construct_hm_2D (int cur_level, int deg, EntityType type, std::vector< EntityHandle > &trackvertsC_edg, std::vector< EntityHandle > &trackvertsF)

ErrorCode	construct_hm_3D (int cur_level, int deg)

ErrorCode	subdivide_cells (EntityType type, int cur_level, int deg)

ErrorCode	subdivide_tets (int cur_level, int deg)

ErrorCode	copy_vertices_from_prev_level (int cur_level)

ErrorCode	count_subentities (EntityHandle set, int cur_level, int nedges, int nfaces)

ErrorCode	get_octahedron_corner_coords (int cur_level, int deg, EntityHandle vbuffer, double ocoords)

int	find_shortest_diagonal_octahedron (int cur_level, int deg, EntityHandle *vbuffer)

int	get_local_vid (EntityHandle vid, EntityHandle ent, int level)

ErrorCode	update_tracking_verts (EntityHandle cid, int cur_level, int deg, std::vector< EntityHandle > &trackvertsC_edg, std::vector< EntityHandle > &trackvertsC_face, EntityHandle *vbuffer)

ErrorCode	reorder_indices (int cur_level, int deg, EntityHandle cell, int lfid, EntityHandle sib_cell, int sib_lfid, int index, int *id_sib)

ErrorCode	reorder_indices (int deg, EntityHandle face1_conn, EntityHandle face2_conn, int nvF, std::vector< int > &lemap, std::vector< int > &vidx, int *leorient=NULL)

ErrorCode	reorder_indices (int deg, int nvF, int comb, int *childfid_map)

ErrorCode	reorder_indices (EntityHandle face1_conn, EntityHandle face2_conn, int nvF, int conn_map, int &comb, int orient=NULL)

ErrorCode	get_lid_inci_child (EntityType type, int deg, int lfid, int leid, std::vector< int > &child_ids, std::vector< int > &child_lvids)

ErrorCode	print_maps_1D (int level)

ErrorCode	print_maps_2D (int level, EntityType type)

ErrorCode	print_maps_3D (int level, EntityType type)

ErrorCode	compute_coordinates (int cur_level, int deg, EntityType type, EntityHandle vbuffer, int vtotal, double corner_coords, std::vector< int > &vflag, int nverts_prev)

ErrorCode	update_local_ahf (int deg, EntityType type, EntityHandle vbuffer, EntityHandle ent_buffer, int etotal)

ErrorCode	update_local_ahf (int deg, EntityType type, int pat_id, EntityHandle vbuffer, EntityHandle ent_buffer, int etotal)

ErrorCode	update_global_ahf (EntityType type, int cur_level, int deg, std::vector< int > *pattern_ids=NULL)

ErrorCode	update_global_ahf_1D (int cur_level, int deg)

ErrorCode	update_global_ahf_1D_sub (int cur_level, int deg)

ErrorCode	update_ahf_1D (int cur_level)

ErrorCode	update_global_ahf_2D (int cur_level, int deg)

ErrorCode	update_global_ahf_2D_sub (int cur_level, int deg)

ErrorCode	update_global_ahf_3D (int cur_level, int deg, std::vector< int > *pattern_ids=NULL)

bool	is_vertex_on_boundary (const EntityHandle &entity)

bool	is_edge_on_boundary (const EntityHandle &entity)

bool	is_face_on_boundary (const EntityHandle &entity)

bool	is_cell_on_boundary (const EntityHandle &entity)

Protected Attributes
Core *	mbImpl

ParallelComm *	pcomm

HalfFacetRep *	ahf

CpuTimer *	tm

EntityHandle	_rset

Range	_inverts

Range	_inedges

Range	_infaces

Range	_incells

EntityType	elementype

int	meshdim

int	nlevels

int	level_dsequence [MAX_LEVELS]

std::map< int, int >	deg_index

bool	hasghost

level_memory	level_mesh [MAX_LEVELS]

Static Protected Attributes
static const refPatterns	refTemplates [9][MAX_DEGREE]
	refPatterns More...

static const intFEdge	intFacEdg [2][2]

static const pmat	permutation [2]

Detailed Description

Definition at line 34 of file NestedRefine.hpp.

Constructor & Destructor Documentation

◆ NestedRefine()

moab::NestedRefine::NestedRefine	(	Core *	impl,
		ParallelComm *	comm = `0`,
		EntityHandle	rset = `0`
	)

Definition at line 24 of file NestedRefine.cpp.

     : mbImpl( impl ), pcomm( comm ), _rset( rset )
 {
     ErrorCode error;
     assert( NULL != impl );
  
 #ifdef MOAB_HAVE_MPI
     // Get the Parallel Comm instance to prepare all new sets to work in parallel
     // in case the user did not provide any arguments
     if( !comm ) pcomm = moab::ParallelComm::get_pcomm( mbImpl, 0 );
 #endif
     error = initialize();
     if( error != MB_SUCCESS )
     {
         std::cout << "Error initializing NestedRefine\n" << std::endl;
         exit( 1 );
     }
 }

References moab::error(), ErrorCode, moab::ParallelComm::get_pcomm(), initialize(), MB_SUCCESS, mbImpl, and pcomm.

◆ ~NestedRefine()

moab::NestedRefine::~NestedRefine ( )

Definition at line 43 of file NestedRefine.cpp.

 {
 #ifdef MOAB_HAVE_AHF
     ahf = NULL;
 #else
     delete ahf;
 #endif
     delete tm;
 }

References ahf, and tm.

Member Function Documentation

◆ child_to_parent()

ErrorCode moab::NestedRefine::child_to_parent	(	EntityHandle	child,
		int	child_level,
		int	parent_level,
		EntityHandle *	parent
	)

Given an entity from a certain level, it returns a pointer to its parent at the requested parent level. NOTE: This query does not support vertices.

Parameters

child	EntityHandle of the entity whose parent is requested
child_level	Mesh level where the child exists
parent_level	Mesh level from which parent is requested
parent	Pointer to the parent in the requested parent_level

Definition at line 234 of file NestedRefine.cpp.

 {
     assert( ( child_level > 0 ) && ( child_level > parent_level ) );
     EntityType type = mbImpl->type_from_handle( child );
     assert( type != MBVERTEX );
  
     int child_index;
     if( type == MBEDGE )
         child_index = child - level_mesh[child_level - 1].start_edge;
     else if( type == MBTRI || type == MBQUAD )
         child_index = child - level_mesh[child_level - 1].start_face;
     else if( type == MBTET || type == MBHEX )
         child_index = child - level_mesh[child_level - 1].start_cell;
     else
         MB_SET_ERR( MB_FAILURE, "Requesting parent for unsupported entity type" );
  
     int parent_index;
     int l = child_level - parent_level;
     for( int i = 0; i < l; i++ )
     {
         int d       = get_index_from_degree( level_dsequence[child_level - i - 1] );
         int nch     = refTemplates[type - 1][d].total_new_ents;
         child_index = child_index / nch;
     }
     parent_index = child_index;
  
     if( type == MBEDGE )
     {
         if( parent_level > 0 )
             *parent = level_mesh[parent_level - 1].start_edge + parent_index;
         else
             *parent = _inedges[parent_index];
     }
     else if( type == MBTRI || type == MBQUAD )
     {
         if( parent_level > 0 )
             *parent = level_mesh[parent_level - 1].start_face + parent_index;
         else
             *parent = _infaces[parent_index];
     }
     else if( type == MBTET || type == MBHEX )
     {
         if( parent_level > 0 )
             *parent = level_mesh[parent_level - 1].start_cell + parent_index;
         else
             *parent = _incells[parent_index];
     }
  
     return MB_SUCCESS;
 }

References _incells, _inedges, _infaces, child, get_index_from_degree(), level_dsequence, level_mesh, MB_SET_ERR, MB_SUCCESS, MBEDGE, MBHEX, mbImpl, MBQUAD, MBTET, MBTRI, MBVERTEX, refTemplates, moab::NestedRefine::level_memory::start_cell, moab::NestedRefine::level_memory::start_edge, moab::NestedRefine::level_memory::start_face, moab::NestedRefine::refPatterns::total_new_ents, and moab::Core::type_from_handle().

Referenced by vertex_to_entities_up().

◆ compute_coordinates()

ErrorCode moab::NestedRefine::compute_coordinates	(	int	cur_level,
		int	deg,
		EntityType	type,
		EntityHandle *	vbuffer,
		int	vtotal,
		double *	corner_coords,
		std::vector< int > &	vflag,
		int	nverts_prev
	)

protected

Definition at line 1730 of file NestedRefine.cpp.

 {
     EntityHandle vstart = level_mesh[cur_level].start_vertex;
     int d               = get_index_from_degree( deg );
  
     if( type == MBTRI )
     {
         double xi, eta, N[3];
         int findex = mbImpl->type_from_handle( *( _infaces.begin() ) ) - 1;
  
         for( int i = 3; i < vtotal; i++ )
         {
             if( vflag[vbuffer[i] - vstart - nverts_prev] ) continue;
  
             xi   = refTemplates[findex][d].vert_nat_coord[i - 3][0];
             eta  = refTemplates[findex][d].vert_nat_coord[i - 3][1];
             N[0] = 1 - xi - eta;
             N[1] = xi;
             N[2] = eta;
  
             double x = 0, y = 0, z = 0;
             for( int j = 0; j < 3; j++ )
             {
                 x += N[j] * corner_coords[3 * j];
                 y += N[j] * corner_coords[3 * j + 1];
                 z += N[j] * corner_coords[3 * j + 2];
             }
  
             level_mesh[cur_level].coordinates[0][vbuffer[i] - vstart] = x;
             level_mesh[cur_level].coordinates[1][vbuffer[i] - vstart] = y;
             level_mesh[cur_level].coordinates[2][vbuffer[i] - vstart] = z;
             vflag[vbuffer[i] - vstart - nverts_prev]                  = 1;
         }
     }
     else if( type == MBQUAD )
     {
         double xi, eta, N[4];
         int findex = mbImpl->type_from_handle( *( _infaces.begin() ) ) - 1;
  
         for( int i = 4; i < vtotal; i++ )
         {
             if( vflag[vbuffer[i] - vstart - nverts_prev] ) continue;
  
             xi   = refTemplates[findex][d].vert_nat_coord[i - 4][0];
             eta  = refTemplates[findex][d].vert_nat_coord[i - 4][1];
             N[0] = ( 1 - xi ) * ( 1 - eta ) / 4;
             N[1] = ( 1 + xi ) * ( 1 - eta ) / 4;
             N[2] = ( 1 + xi ) * ( 1 + eta ) / 4, N[3] = ( 1 - xi ) * ( 1 + eta ) / 4;
  
             double x = 0, y = 0, z = 0;
             for( int j = 0; j < 4; j++ )
             {
                 x += N[j] * corner_coords[3 * j];
                 y += N[j] * corner_coords[3 * j + 1];
                 z += N[j] * corner_coords[3 * j + 2];
             }
  
             level_mesh[cur_level].coordinates[0][vbuffer[i] - vstart] = x;
             level_mesh[cur_level].coordinates[1][vbuffer[i] - vstart] = y;
             level_mesh[cur_level].coordinates[2][vbuffer[i] - vstart] = z;
             vflag[vbuffer[i] - vstart - nverts_prev]                  = 1;
         }
     }
     else if( type == MBTET )
     {
         double xi, eta, mu, N[4];
         int cindex = mbImpl->type_from_handle( *( _incells.begin() ) ) - 1;
  
         for( int i = 4; i < vtotal; i++ )
         {
             if( vflag[vbuffer[i] - vstart - nverts_prev] ) continue;
  
             xi  = refTemplates[cindex][d].vert_nat_coord[i - 4][0];
             eta = refTemplates[cindex][d].vert_nat_coord[i - 4][1];
             mu  = refTemplates[cindex][d].vert_nat_coord[i - 4][2];
  
             N[0] = 1 - xi - eta - mu;
             N[1] = xi;
             N[2] = eta, N[3] = mu;
  
             double x = 0, y = 0, z = 0;
             for( int j = 0; j < 4; j++ )
             {
                 x += N[j] * corner_coords[3 * j];
                 y += N[j] * corner_coords[3 * j + 1];
                 z += N[j] * corner_coords[3 * j + 2];
             }
  
             level_mesh[cur_level].coordinates[0][vbuffer[i] - vstart] = x;
             level_mesh[cur_level].coordinates[1][vbuffer[i] - vstart] = y;
             level_mesh[cur_level].coordinates[2][vbuffer[i] - vstart] = z;
             vflag[vbuffer[i] - vstart - nverts_prev]                  = 1;
         }
     }
     else if( type == MBPRISM )
     {
         double xi, eta, mu, N[6];
         int cindex = mbImpl->type_from_handle( *( _incells.begin() ) ) - 1;
  
         for( int i = 6; i < vtotal; i++ )
         {
             if( vflag[vbuffer[i] - vstart - nverts_prev] ) continue;
  
             xi  = refTemplates[cindex][d].vert_nat_coord[i - 6][0];
             eta = refTemplates[cindex][d].vert_nat_coord[i - 6][1];
             mu  = refTemplates[cindex][d].vert_nat_coord[i - 6][2];
  
             N[0] = ( 1 - xi - eta ) * ( 1 - mu ), N[1] = xi * ( 1 - mu ), N[2] = eta * ( 1 - mu ),
             N[3] = ( 1 - xi - eta ) * ( 1 + mu ), N[4] = xi * ( 1 + mu ), N[5] = eta * ( 1 + mu );
  
             double x = 0, y = 0, z = 0;
             for( int j = 0; j < 6; j++ )
             {
                 x += N[j] * corner_coords[3 * j];
                 y += N[j] * corner_coords[3 * j + 1];
                 z += N[j] * corner_coords[3 * j + 2];
             }
  
             level_mesh[cur_level].coordinates[0][vbuffer[i] - vstart] = x;
             level_mesh[cur_level].coordinates[1][vbuffer[i] - vstart] = y;
             level_mesh[cur_level].coordinates[2][vbuffer[i] - vstart] = z;
             vflag[vbuffer[i] - vstart - nverts_prev]                  = 1;
         }
     }
     else if( type == MBHEX )
     {
         double xi, eta, mu, N[8];
         double d1, d2, d3, s1, s2, s3;
         int cindex = mbImpl->type_from_handle( *( _incells.begin() ) ) - 1;
  
         for( int i = 8; i < vtotal; i++ )
         {
  
             if( vflag[vbuffer[i] - vstart - nverts_prev] ) continue;
  
             xi  = refTemplates[cindex][d].vert_nat_coord[i - 8][0];
             eta = refTemplates[cindex][d].vert_nat_coord[i - 8][1];
             mu  = refTemplates[cindex][d].vert_nat_coord[i - 8][2];
  
             d1   = 1 - xi;
             d2   = 1 - eta;
             d3   = 1 - mu;
             s1   = 1 + xi;
             s2   = 1 + eta;
             s3   = 1 + mu;
             N[0] = ( d1 * d2 * d3 ) / 8;
             N[1] = ( s1 * d2 * d3 ) / 8;
             N[2] = ( s1 * s2 * d3 ) / 8;
             N[3] = ( d1 * s2 * d3 ) / 8;
             N[4] = ( d1 * d2 * s3 ) / 8;
             N[5] = ( s1 * d2 * s3 ) / 8;
             N[6] = ( s1 * s2 * s3 ) / 8;
             N[7] = ( d1 * s2 * s3 ) / 8;
  
             double x = 0, y = 0, z = 0;
             for( int j = 0; j < 8; j++ )
             {
                 x += N[j] * corner_coords[3 * j];
                 y += N[j] * corner_coords[3 * j + 1];
                 z += N[j] * corner_coords[3 * j + 2];
             }
  
             level_mesh[cur_level].coordinates[0][vbuffer[i] - vstart] = x;
             level_mesh[cur_level].coordinates[1][vbuffer[i] - vstart] = y;
             level_mesh[cur_level].coordinates[2][vbuffer[i] - vstart] = z;
  
             vflag[vbuffer[i] - vstart - nverts_prev] = 1;
         }
     }
     return MB_SUCCESS;
 }

References _incells, _infaces, moab::Range::begin(), moab::NestedRefine::level_memory::coordinates, get_index_from_degree(), level_mesh, MB_SUCCESS, MBHEX, mbImpl, MBPRISM, MBQUAD, MBTET, MBTRI, refTemplates, moab::NestedRefine::level_memory::start_vertex, moab::Core::type_from_handle(), and moab::NestedRefine::refPatterns::vert_nat_coord.

Referenced by construct_hm_2D(), subdivide_cells(), and subdivide_tets().

◆ construct_hm_1D() [1/2]

ErrorCode moab::NestedRefine::construct_hm_1D	(	int	cur_level,
		int	deg
	)

protected

Definition at line 804 of file NestedRefine.cpp.

 {
     ErrorCode error;
     int nverts_prev, nents_prev;
     if( cur_level )
     {
         nverts_prev = level_mesh[cur_level - 1].num_verts;
         nents_prev  = level_mesh[cur_level - 1].num_edges;
     }
     else
     {
         nverts_prev = _inverts.size();
         nents_prev  = _inedges.size();
     }
  
     int d      = get_index_from_degree( deg );
     int vtotal = 2 + refTemplates[0][d].total_new_verts;
     std::vector< EntityHandle > vbuffer( vtotal );
  
     std::vector< EntityHandle > conn;
     int count_nents = 0;
     int count_verts = nverts_prev;
  
     // Step 1: Create the subentities via refinement of the previous mesh
     for( int eid = 0; eid < nents_prev; eid++ )
     {
         conn.clear();
  
         // EntityHandle of the working edge
         EntityHandle edge;
         if( cur_level )
             edge = level_mesh[cur_level - 1].start_edge + eid;
         else
             edge = _inedges[eid];  // Makes the assumption initial mesh is contiguous in memory
  
         error = get_connectivity( edge, cur_level, conn );MB_CHK_ERR( error );
  
         // Add the vertex handles to vbuffer for the current level for the working edge
  
         // Since the old vertices are copied first, their local indices do not change as new levels
         // are added. Clearly the local indices of the new vertices introduced in the current level
         // is still the same when the old vertices are copied. Thus, there is no need to explicitly
         // store another map between the old and duplicates in the subsequent levels. The second
         // part in the following sum is the local index in the previous level.
  
         // Add the corners to the vbuffer first.
  
         for( int i = 0; i < (int)conn.size(); i++ )
         {
             if( cur_level )
                 vbuffer[i] = level_mesh[cur_level].start_vertex + ( conn[i] - level_mesh[cur_level - 1].start_vertex );
             else
                 vbuffer[i] = level_mesh[cur_level].start_vertex + ( conn[i] - *_inverts.begin() );
         }
  
         // Adding rest of the entityhandles to working buffer for vertices.
         int num_new_verts = refTemplates[0][d].total_new_verts;
  
         for( int i = 0; i < num_new_verts; i++ )
         {
             vbuffer[i + 2] = level_mesh[cur_level].start_vertex + count_verts;
             count_verts += 1;
         }
  
         // Use the template to obtain the subentities
         int id1, id2;
         int etotal = refTemplates[0][d].total_new_ents;
         std::vector< EntityHandle > ent_buffer( etotal );
  
         for( int i = 0; i < etotal; i++ )
         {
             id1                                                      = refTemplates[0][d].ents_conn[i][0];
             id2                                                      = refTemplates[0][d].ents_conn[i][1];
             level_mesh[cur_level].edge_conn[2 * ( count_nents )]     = vbuffer[id1];
             level_mesh[cur_level].edge_conn[2 * ( count_nents ) + 1] = vbuffer[id2];
             ent_buffer[i]                                            = level_mesh[cur_level].start_edge + count_nents;
             count_nents += 1;
         };
  
         error = update_local_ahf( deg, MBEDGE, &vbuffer[0], &ent_buffer[0], etotal );MB_CHK_ERR( error );
  
         // Compute the coordinates of the new vertices: Linear interpolation
         int idx;
         double xi;
         for( int i = 0; i < num_new_verts; i++ )
         {
             xi  = refTemplates[0][d].vert_nat_coord[i][0];
             idx = vbuffer[i + 2] - level_mesh[cur_level].start_vertex;  // index of new vertex in current level
             if( cur_level )
             {
                 id1 = conn[0] - level_mesh[cur_level - 1].start_vertex;  // index of old end vertices in current level
                 id2 = conn[1] - level_mesh[cur_level - 1].start_vertex;
             }
             else
             {
                 id1 = _inverts.index( conn[0] );
                 id2 = _inverts.index( conn[1] );
             }
  
             level_mesh[cur_level].coordinates[0][idx] =
                 ( 1 - xi ) * level_mesh[cur_level].coordinates[0][id1] + xi * level_mesh[cur_level].coordinates[0][id2];
             level_mesh[cur_level].coordinates[1][idx] =
                 ( 1 - xi ) * level_mesh[cur_level].coordinates[1][id1] + xi * level_mesh[cur_level].coordinates[1][id2];
             level_mesh[cur_level].coordinates[2][idx] =
                 ( 1 - xi ) * level_mesh[cur_level].coordinates[2][id1] + xi * level_mesh[cur_level].coordinates[2][id2];
         }
     }
  
     error = update_global_ahf( MBEDGE, cur_level, deg );MB_CHK_ERR( error );
  
     return MB_SUCCESS;
 }

Referenced by construct_hm_2D(), construct_hm_entities(), subdivide_cells(), and subdivide_tets().

◆ construct_hm_1D() [2/2]

ErrorCode moab::NestedRefine::construct_hm_1D	(	int	cur_level,
		int	deg,
		EntityType	type,
		std::vector< EntityHandle > &	trackverts
	)

protected

Definition at line 917 of file NestedRefine.cpp.

 {
     ErrorCode error;
  
     int nedges_prev;
     if( cur_level )
         nedges_prev = level_mesh[cur_level - 1].num_edges;
     else
         nedges_prev = _inedges.size();
  
     int d      = get_index_from_degree( deg );
     int nve    = refTemplates[0][d].nv_edge;
     int vtotal = 2 + refTemplates[0][d].total_new_verts;
     int etotal = refTemplates[0][d].total_new_ents;
     int ne = 0, dim = 0, index = 0;
     if( type == MBTRI || type == MBQUAD )
     {
         index = type - 2;
         ne    = ahf->lConnMap2D[index].num_verts_in_face;
         dim   = 2;
     }
     else if( type == MBTET || type == MBHEX )
     {
         index = ahf->get_index_in_lmap( *( _incells.begin() ) );
         ne    = ahf->lConnMap3D[index].num_edges_in_cell;
         dim   = 3;
     }
  
     std::vector< EntityHandle > vbuffer( vtotal );
     std::vector< EntityHandle > ent_buffer( etotal );
  
     std::vector< EntityHandle > adjents, econn, fconn;
     std::vector< int > leids;
     int count_nents = 0;
  
     // Loop over all the edges and gather the vertices to be used for refinement
     for( int eid = 0; eid < nedges_prev; eid++ )
     {
         adjents.clear();
         leids.clear();
         econn.clear();
         fconn.clear();
         for( int i = 0; i < vtotal; i++ )
             vbuffer[i] = 0;
         for( int i = 0; i < etotal; i++ )
             ent_buffer[i] = 0;
  
         EntityHandle edge;
         if( cur_level )
             edge = level_mesh[cur_level - 1].start_edge + eid;
         else
             edge = _inedges[eid];
  
         error = get_connectivity( edge, cur_level, econn );MB_CHK_ERR( error );
  
         for( int i = 0; i < (int)econn.size(); i++ )
         {
             if( cur_level )
                 vbuffer[i] = level_mesh[cur_level].start_vertex + ( econn[i] - level_mesh[cur_level - 1].start_vertex );
             else
                 vbuffer[i] = level_mesh[cur_level].start_vertex + ( econn[i] - *_inverts.begin() );
         }
  
         int fid = -1, lid = -1, idx1 = -1, idx2 = -1;
  
         if( dim == 2 )
         {
             error = ahf->get_up_adjacencies_2d( edge, adjents, &leids );MB_CHK_ERR( error );
             if( cur_level )
                 fid = adjents[0] - level_mesh[cur_level - 1].start_face;
             else
                 fid = _infaces.index( adjents[0] );
  
             lid  = leids[0];
             idx1 = lid;
             idx2 = ahf->lConnMap2D[index].next[lid];
         }
         else if( dim == 3 )
         {
             error = ahf->get_up_adjacencies_edg_3d( edge, adjents, &leids );MB_CHK_ERR( error );
             if( cur_level )
                 fid = adjents[0] - level_mesh[cur_level - 1].start_cell;
             else
                 fid = _incells.index( adjents[0] );
  
             lid  = leids[0];
             idx1 = ahf->lConnMap3D[index].e2v[lid][0];
             idx2 = ahf->lConnMap3D[index].e2v[lid][1];
         }
  
         error = get_connectivity( adjents[0], cur_level, fconn );MB_CHK_ERR( error );
  
         bool orient = false;
         if( ( fconn[idx1] == econn[0] ) && ( fconn[idx2] == econn[1] ) ) orient = true;
  
         if( orient )
         {
             for( int j = 0; j < nve; j++ )
                 vbuffer[j + 2] = trackverts[fid * ne * nve + nve * lid + j];
         }
         else
         {
             for( int j = 0; j < nve; j++ )
                 vbuffer[( nve - j - 1 ) + 2] = trackverts[fid * ne * nve + nve * lid + j];
         }
  
         // Use the template to obtain the subentities
         int id1, id2;
  
         for( int i = 0; i < etotal; i++ )
         {
             id1                                                      = refTemplates[0][d].ents_conn[i][0];
             id2                                                      = refTemplates[0][d].ents_conn[i][1];
             level_mesh[cur_level].edge_conn[2 * ( count_nents )]     = vbuffer[id1];
             level_mesh[cur_level].edge_conn[2 * ( count_nents ) + 1] = vbuffer[id2];
             ent_buffer[i]                                            = level_mesh[cur_level].start_edge + count_nents;
  
             count_nents += 1;
         };
  
         error = update_local_ahf( deg, MBEDGE, &vbuffer[0], &ent_buffer[0], etotal );MB_CHK_ERR( error );
     }
  
     error = update_global_ahf_1D_sub( cur_level, deg );MB_CHK_ERR( error );
  
     return MB_SUCCESS;
 }

◆ construct_hm_2D() [1/2]

ErrorCode moab::NestedRefine::construct_hm_2D	(	int	cur_level,
		int	deg
	)

protected

Definition at line 1048 of file NestedRefine.cpp.

 {
     ErrorCode error;
     int nverts_prev, nents_prev;
     if( cur_level )
     {
         nverts_prev = level_mesh[cur_level - 1].num_verts;
         nents_prev  = level_mesh[cur_level - 1].num_faces;
     }
     else
     {
         nverts_prev = _inverts.size();
         nents_prev  = _infaces.size();
     }
  
     // Create some book-keeping arrays over the old mesh to avoid introducing duplicate vertices and
     // calculating vertices more than once.
     EntityType ftype = mbImpl->type_from_handle( *_infaces.begin() );
     int nepf         = ahf->lConnMap2D[ftype - 2].num_verts_in_face;
     int findex       = ftype - 1;
  
     int d      = get_index_from_degree( deg );
     int tnv    = refTemplates[findex][d].total_new_verts;
     int vtotal = nepf + tnv;
     std::vector< EntityHandle > vbuffer( vtotal );
     int etotal = refTemplates[findex][d].total_new_ents;
     std::vector< EntityHandle > ent_buffer( etotal );
  
     int nve = refTemplates[findex][d].nv_edge;
     std::vector< EntityHandle > trackvertsF( nents_prev * nepf * nve, 0 );
     int cur_nverts = level_mesh[cur_level].num_verts;
     std::vector< int > flag_verts( cur_nverts - nverts_prev, 0 );
  
     int count_nverts = nverts_prev;
     int count_nents  = 0;
     std::vector< EntityHandle > conn, cur_conn;
  
     // Step 1: Create the subentities via refinement of the previous mesh
     for( int fid = 0; fid < nents_prev; fid++ )
     {
         conn.clear();
         cur_conn.clear();
         for( int i = 0; i < vtotal; i++ )
             vbuffer[i] = 0;
         for( int i = 0; i < etotal; i++ )
             ent_buffer[i] = 0;
  
         // EntityHandle of the working face
         EntityHandle face;
         if( cur_level )
             face = level_mesh[cur_level - 1].start_face + fid;
         else
             face = _infaces[fid];
  
         error = get_connectivity( face, cur_level, conn );MB_CHK_ERR( error );
  
         // Step 1: Add vertices from the current level for the working face that will be used for
         // subdivision.
         // Add the corners to vbuffer
         for( int i = 0; i < (int)conn.size(); i++ )
         {
             if( cur_level )
                 vbuffer[i] = level_mesh[cur_level].start_vertex + ( conn[i] - level_mesh[cur_level - 1].start_vertex );
             else
                 vbuffer[i] = level_mesh[cur_level].start_vertex + ( conn[i] - *_inverts.begin() );
  
             cur_conn.push_back( vbuffer[i] );
         }
  
         // Gather vertices already added to tracking array due to refinement of the sibling faces
  
         for( int i = 0; i < nepf; i++ )
         {
             for( int j = 0; j < nve; j++ )
             {
                 int id      = refTemplates[findex][d].vert_on_edges[i][j];
                 vbuffer[id] = trackvertsF[fid * nve * nepf + nve * i + j];
             }
         }
  
         // Add the remaining vertex handles to vbuffer for the current level for the working face
         for( int i = 0; i < tnv; i++ )
         {
             if( !vbuffer[i + nepf] )
             {
                 vbuffer[i + nepf] = level_mesh[cur_level].start_vertex + count_nverts;
                 count_nverts += 1;
             }
         }
  
         // Step 2: Create the subentities using the template and the vbuffer
         int idx;
         for( int i = 0; i < etotal; i++ )
         {
             for( int k = 0; k < nepf; k++ )
             {
                 idx                                                     = refTemplates[findex][d].ents_conn[i][k];
                 level_mesh[cur_level].face_conn[nepf * count_nents + k] = vbuffer[idx];
             }
             ent_buffer[i] = level_mesh[cur_level].start_face + count_nents;
             count_nents += 1;
         }
  
         // Step 3: Update the local AHF maps
         error = update_local_ahf( deg, ftype, &vbuffer[0], &ent_buffer[0], etotal );MB_CHK_ERR( error );
  
         // Step 4: Add the new vertices to the tracking array
         int id;
  
         for( int i = 0; i < nepf; i++ )
         {
             // Add the vertices to trackvertsF for fid
             for( int j = 0; j < nve; j++ )
             {
                 id                                          = refTemplates[findex][d].vert_on_edges[i][j];
                 trackvertsF[fid * nepf * nve + nve * i + j] = vbuffer[id];
             }
  
             std::vector< EntityHandle > sibfids;
             std::vector< int > sibleids;
             std::vector< int > siborient;
  
             // Add the vertices to trackvertsF for siblings of fid, if any.
             error = ahf->get_up_adjacencies_2d( face, i, false, sibfids, &sibleids, &siborient );MB_CHK_ERR( error );
  
             if( !sibfids.size() ) continue;
  
             for( int s = 0; s < (int)sibfids.size(); s++ )
             {
                 int sibid;
                 if( cur_level )
                     sibid = sibfids[s] - level_mesh[cur_level - 1].start_face;
                 else
                     sibid = sibfids[s] - *_infaces.begin();
  
                 if( siborient[s] )  // Same half-edge direction as the current half-edge
                 {
                     for( int j = 0; j < nve; j++ )
                     {
                         id = refTemplates[findex][d].vert_on_edges[i][j];
                         trackvertsF[sibid * nepf * nve + nve * sibleids[s] + j] = vbuffer[id];
                     }
                 }
                 else
                 {
                     for( int j = 0; j < nve; j++ )
                     {
                         id = refTemplates[findex][d].vert_on_edges[i][nve - j - 1];
                         trackvertsF[sibid * nepf * nve + nve * sibleids[s] + j] = vbuffer[id];
                     }
                 }
             }
         }
  
         // Step 5: Compute the coordinates of the new vertices, avoids computing more than once via
         // the flag_verts array.
         std::vector< double > corner_coords( nepf * 3 );
         error = get_coordinates( &cur_conn[0], nepf, cur_level + 1, &corner_coords[0] );MB_CHK_ERR( error );
  
         error = compute_coordinates( cur_level, deg, ftype, &vbuffer[0], vtotal, &corner_coords[0], flag_verts,
                                      nverts_prev );MB_CHK_ERR( error );
     }
  
     // Step 6: Update the global maps
     error = update_global_ahf( ftype, cur_level, deg );MB_CHK_ERR( error );
  
     // Step 7: If edges exists, refine them.
     if( !_inedges.empty() )
     {
         error = construct_hm_1D( cur_level, deg, ftype, trackvertsF );MB_CHK_ERR( error );
     }
  
     return MB_SUCCESS;
 }

Referenced by construct_hm_entities(), subdivide_cells(), and subdivide_tets().

◆ construct_hm_2D() [2/2]

ErrorCode moab::NestedRefine::construct_hm_2D	(	int	cur_level,
		int	deg,
		EntityType	type,
		std::vector< EntityHandle > &	trackvertsC_edg,
		std::vector< EntityHandle > &	trackvertsF
	)

protected

Definition at line 1223 of file NestedRefine.cpp.

 {
     ErrorCode error;
  
     EntityType ftype = MBTRI;
     if( type == MBHEX ) ftype = MBQUAD;
  
     int d      = get_index_from_degree( deg );
     int findex = ftype - 1;
     int cidx   = ahf->get_index_in_lmap( *( _incells.begin() ) );
  
     int nepf = ahf->lConnMap2D[ftype - 2].num_verts_in_face;
     int nepc = ahf->lConnMap3D[cidx].num_edges_in_cell;
     int nfpc = ahf->lConnMap3D[cidx].num_faces_in_cell;
  
     int tnv    = refTemplates[findex][d].total_new_verts;
     int nve    = refTemplates[findex][d].nv_edge;
     int nvf    = refTemplates[findex][d].nv_face;
     int vtotal = nepf + tnv;
     int etotal = refTemplates[findex][d].total_new_ents;
  
     std::vector< EntityHandle > vbuffer( vtotal );
     std::vector< EntityHandle > ent_buffer( etotal );
  
     std::vector< EntityHandle > adjents, fconn, cconn;
     std::vector< int > leids;
     int count_nents = 0;
  
     int nents_prev, ecount;
     if( cur_level )
     {
         nents_prev = level_mesh[cur_level - 1].num_faces;
         ecount     = level_mesh[cur_level - 1].num_edges * refTemplates[MBEDGE - 1][d].total_new_ents;
         ;
     }
     else
     {
         nents_prev = _infaces.size();
         ecount     = _inedges.size() * refTemplates[MBEDGE - 1][d].total_new_ents;
         ;
     }
  
     // Step 1: Create the subentities via refinement of the previous mesh
     for( int it = 0; it < nents_prev; it++ )
     {
         fconn.clear();
         cconn.clear();
         adjents.clear();
         leids.clear();
         for( int i = 0; i < vtotal; i++ )
             vbuffer[i] = 0;
         for( int i = 0; i < etotal; i++ )
             ent_buffer[i] = 0;
  
         // EntityHandle of the working face
         EntityHandle face;
         if( cur_level )
             face = level_mesh[cur_level - 1].start_face + it;
         else
             face = _infaces[it];
  
         error = get_connectivity( face, cur_level, fconn );MB_CHK_ERR( error );
  
         // Add the new handles for old connectivity in the buffer
         for( int i = 0; i < (int)fconn.size(); i++ )
         {
             if( cur_level )
                 vbuffer[i] = level_mesh[cur_level].start_vertex + ( fconn[i] - level_mesh[cur_level - 1].start_vertex );
             else
                 vbuffer[i] = level_mesh[cur_level].start_vertex + ( fconn[i] - *_inverts.begin() );
         }
  
         // Add handles for vertices on edges and faces from the already refined cell
         int fid, lid;
         error = ahf->get_up_adjacencies_face_3d( face, adjents, &leids );MB_CHK_ERR( error );
  
         if( cur_level )
             fid = adjents[0] - level_mesh[cur_level - 1].start_cell;
         else
             fid = _incells.index( adjents[0] );
  
         lid = leids[0];
  
         error = get_connectivity( adjents[0], cur_level, cconn );MB_CHK_ERR( error );
  
         // Find the orientation w.r.t the half-face and then add vertices properly.
         std::vector< EntityHandle > fac_conn( nepf );
         std::vector< EntityHandle > lfac_conn( nepf );
         for( int j = 0; j < nepf; j++ )
         {
             fac_conn[j]  = fconn[j];
             int id       = ahf->lConnMap3D[cidx].hf2v[lid][j];
             lfac_conn[j] = cconn[id];
         }
  
         std::vector< int > le_idx, indices;
  
         error = reorder_indices( deg, &fac_conn[0], &lfac_conn[0], nepf, le_idx, indices );MB_CHK_ERR( error );
  
         // Add the existing vertices on edges of the already refined cell to the vbuffer
         for( int j = 0; j < nepf; j++ )
         {
             int id  = le_idx[j];                              // Corresponding local edge
             int idx = ahf->lConnMap3D[cidx].f2leid[lid][id];  // Local edge in the cell
  
             // Get the orientation of the local edge of the face wrt the corresponding local edge in
             // the cell
             bool eorient = false;
             int fnext    = ahf->lConnMap2D[ftype - 2].next[j];
             int idx1     = ahf->lConnMap3D[cidx].e2v[idx][0];
             int idx2     = ahf->lConnMap3D[cidx].e2v[idx][1];
             if( ( fconn[j] == cconn[idx1] ) && ( fconn[fnext] == cconn[idx2] ) ) eorient = true;
  
             if( eorient )
             {
                 for( int k = 0; k < nve; k++ )
                 {
                     int ind      = refTemplates[findex][d].vert_on_edges[j][k];
                     vbuffer[ind] = trackvertsE[fid * nepc * nve + nve * idx + k];
                 }
             }
             else
             {
                 for( int k = 0; k < nve; k++ )
                 {
                     int ind      = refTemplates[findex][d].vert_on_edges[j][nve - k - 1];
                     vbuffer[ind] = trackvertsE[fid * nepc * nve + nve * idx + k];
                 }
             }
         }
  
         // Add the existing vertices on the face of the refine cell to vbuffer
         if( nvf )
         {
             for( int k = 0; k < nvf; k++ )
             {
                 int ind      = refTemplates[findex][d].vert_on_faces[0][k];
                 vbuffer[ind] = trackvertsF[fid * nfpc * nvf + nvf * lid + indices[k] - 1];
             }
         }
  
         // Create the subentities using the template and the vbuffer
         for( int i = 0; i < etotal; i++ )
         {
             for( int k = 0; k < nepf; k++ )
             {
                 int idx                                                 = refTemplates[findex][d].ents_conn[i][k];
                 level_mesh[cur_level].face_conn[nepf * count_nents + k] = vbuffer[idx];
             }
             ent_buffer[i] = level_mesh[cur_level].start_face + count_nents;
             count_nents += 1;
         }
  
         error = update_local_ahf( deg, ftype, &vbuffer[0], &ent_buffer[0], etotal );MB_CHK_ERR( error );
  
         // Create the interior edges
         int id1, id2;
  
         int ne = intFacEdg[ftype - 2][d].nie;
         for( int i = 0; i < ne; i++ )
         {
             id1                                                 = intFacEdg[ftype - 2][d].ieconn[i][0];
             id2                                                 = intFacEdg[ftype - 2][d].ieconn[i][1];
             level_mesh[cur_level].edge_conn[2 * ( ecount )]     = vbuffer[id1];
             level_mesh[cur_level].edge_conn[2 * ( ecount ) + 1] = vbuffer[id2];
             ecount += 1;
         }
     }
  
     // Step 6: Update the global maps
     error = update_global_ahf_2D_sub( cur_level, deg );MB_CHK_ERR( error );
  
     // Step 7: Update the hf-maps for the edges
     error = update_ahf_1D( cur_level );MB_CHK_ERR( error );
  
     return MB_SUCCESS;
 }

◆ construct_hm_3D()

ErrorCode moab::NestedRefine::construct_hm_3D	(	int	cur_level,
		int	deg
	)

protected

Definition at line 1405 of file NestedRefine.cpp.

 {
     ErrorCode error;
     EntityType type = mbImpl->type_from_handle( *( _incells.begin() ) );
     if( type == MBTET )
     {
         error = subdivide_tets( cur_level, deg );MB_CHK_ERR( error );
     }
     else
     {
         error = subdivide_cells( type, cur_level, deg );MB_CHK_ERR( error );
     }
  
     return MB_SUCCESS;
 }

References _incells, moab::Range::begin(), moab::error(), ErrorCode, MB_CHK_ERR, MB_SUCCESS, mbImpl, MBTET, subdivide_cells(), subdivide_tets(), and moab::Core::type_from_handle().

Referenced by construct_hm_entities().

◆ construct_hm_entities()

ErrorCode moab::NestedRefine::construct_hm_entities	(	int	cur_level,
		int	deg
	)

protected

Definition at line 783 of file NestedRefine.cpp.

 {
     ErrorCode error;
  
     // Generate mesh for current level by refining previous level.
     if( ahf->thismeshtype == CURVE )
     {
         error = construct_hm_1D( cur_level, deg );MB_CHK_ERR( error );
     }
     else if( ahf->thismeshtype == SURFACE || ahf->thismeshtype == SURFACE_MIXED )
     {
         error = construct_hm_2D( cur_level, deg );MB_CHK_ERR( error );
     }
     else
     {
         error = construct_hm_3D( cur_level, deg );MB_CHK_ERR( error );
     }
  
     return MB_SUCCESS;
 }

References ahf, construct_hm_1D(), construct_hm_2D(), construct_hm_3D(), moab::CURVE, moab::error(), ErrorCode, MB_CHK_ERR, MB_SUCCESS, moab::SURFACE, moab::SURFACE_MIXED, and moab::HalfFacetRep::thismeshtype.

Referenced by generate_hm().

◆ copy_vertices_from_prev_level()

ErrorCode moab::NestedRefine::copy_vertices_from_prev_level ( int cur_level )

protected

Definition at line 4165 of file NestedRefine.cpp.

 {
     ErrorCode error;
  
     if( cur_level )
     {
         int nverts_prev = level_mesh[cur_level - 1].num_verts;
         for( int i = 0; i < nverts_prev; i++ )
         {
             level_mesh[cur_level].coordinates[0][i] = level_mesh[cur_level - 1].coordinates[0][i];
             level_mesh[cur_level].coordinates[1][i] = level_mesh[cur_level - 1].coordinates[1][i];
             level_mesh[cur_level].coordinates[2][i] = level_mesh[cur_level - 1].coordinates[2][i];
         }
     }
     else  // Copy the vertices from the input mesh
     {
         int nverts_in = _inverts.size();
         std::vector< double > vcoords( 3 * nverts_in );
         error = mbImpl->get_coords( _inverts, &vcoords[0] );MB_CHK_ERR( error );
  
         for( int i = 0; i < nverts_in; i++ )
         {
             level_mesh[cur_level].coordinates[0][i] = vcoords[3 * i];
             level_mesh[cur_level].coordinates[1][i] = vcoords[3 * i + 1];
             level_mesh[cur_level].coordinates[2][i] = vcoords[3 * i + 2];
         }
     }
     return MB_SUCCESS;
     // To add: Map from old vertices to new duplicates: NOT NEEDED
 }

References _inverts, moab::NestedRefine::level_memory::coordinates, moab::error(), ErrorCode, moab::Core::get_coords(), level_mesh, MB_CHK_ERR, MB_SUCCESS, mbImpl, moab::NestedRefine::level_memory::num_verts, and moab::Range::size().

Referenced by generate_hm().

◆ count_subentities()

ErrorCode moab::NestedRefine::count_subentities	(	EntityHandle	set,
		int	cur_level,
		int *	nedges,
		int *	nfaces
	)

protected

Definition at line 4520 of file NestedRefine.cpp.

 {
     ErrorCode error;
  
     if( cur_level >= 0 )
     {
         Range edges, faces, cells;
  
         error = mbImpl->get_entities_by_dimension( set, 1, edges );MB_CHK_ERR( error );
  
         error = mbImpl->get_entities_by_dimension( set, 2, faces );MB_CHK_ERR( error );
  
         error = mbImpl->get_entities_by_dimension( set, 3, cells );MB_CHK_ERR( error );
  
         error = ahf->count_subentities( edges, faces, cells, nedges, nfaces );MB_CHK_ERR( error );
     }
     else
     {
         error = ahf->count_subentities( _inedges, _infaces, _incells, nedges, nfaces );MB_CHK_ERR( error );
     }
  
     return MB_SUCCESS;
 }

References _incells, _inedges, _infaces, ahf, moab::HalfFacetRep::count_subentities(), moab::error(), ErrorCode, moab::Core::get_entities_by_dimension(), MB_CHK_ERR, MB_SUCCESS, and mbImpl.

Referenced by estimate_hm_storage().

◆ create_hm_storage_single_level()

ErrorCode moab::NestedRefine::create_hm_storage_single_level	(	EntityHandle *	set,
		int	cur_level,
		int	estL[4]
	)

protected

Definition at line 624 of file NestedRefine.cpp.

 {
     // Obtain chunks of memory for the current level. Add them to a particular meshset.
     EntityHandle set_handle;
     ErrorCode error = mbImpl->create_meshset( MESHSET_SET, set_handle );MB_CHK_SET_ERR( error, "Cannot create mesh for the current level" );
     *set = set_handle;
  
     ReadUtilIface* read_iface;
     error = mbImpl->query_interface( read_iface );MB_CHK_ERR( error );
  
     // Vertices
     error = read_iface->get_node_coords( 3, estL[0], 0, level_mesh[cur_level].start_vertex,
                                          level_mesh[cur_level].coordinates );MB_CHK_ERR( error );
     level_mesh[cur_level].num_verts = estL[0];
  
     Range newverts( level_mesh[cur_level].start_vertex, level_mesh[cur_level].start_vertex + estL[0] - 1 );
     error = mbImpl->add_entities( *set, newverts );MB_CHK_ERR( error );
     level_mesh[cur_level].verts = newverts;
  
     Tag gidtag;
     error = mbImpl->tag_get_handle( GLOBAL_ID_TAG_NAME, gidtag );MB_CHK_ERR( error );
     error = read_iface->assign_ids( gidtag, newverts, level_mesh[cur_level].start_vertex );MB_CHK_ERR( error );
  
     // Edges
     if( estL[1] )
     {
         error = read_iface->get_element_connect( estL[1], 2, MBEDGE, 0, level_mesh[cur_level].start_edge,
                                                  level_mesh[cur_level].edge_conn );MB_CHK_ERR( error );
         level_mesh[cur_level].num_edges = estL[1];
  
         Range newedges( level_mesh[cur_level].start_edge, level_mesh[cur_level].start_edge + estL[1] - 1 );
         error = mbImpl->add_entities( *set, newedges );MB_CHK_ERR( error );
         level_mesh[cur_level].edges = newedges;
     }
     else
         level_mesh[cur_level].num_edges = 0;
  
     // Faces
     if( estL[2] )
     {
         EntityType type = mbImpl->type_from_handle( *( _infaces.begin() ) );
         int nvpf        = ahf->lConnMap2D[type - 2].num_verts_in_face;
         error           = read_iface->get_element_connect( estL[2], nvpf, type, 0, level_mesh[cur_level].start_face,
                                                            level_mesh[cur_level].face_conn );MB_CHK_ERR( error );
         level_mesh[cur_level].num_faces = estL[2];
  
         Range newfaces( level_mesh[cur_level].start_face, level_mesh[cur_level].start_face + estL[2] - 1 );
         error = mbImpl->add_entities( *set, newfaces );MB_CHK_ERR( error );
         level_mesh[cur_level].faces = newfaces;
     }
     else
         level_mesh[cur_level].num_faces = 0;
  
     // Cells
     if( estL[3] )
     {
         EntityType type = mbImpl->type_from_handle( *( _incells.begin() ) );
         int index       = ahf->get_index_in_lmap( *_incells.begin() );
         int nvpc        = ahf->lConnMap3D[index].num_verts_in_cell;
         error           = read_iface->get_element_connect( estL[3], nvpc, type, 0, level_mesh[cur_level].start_cell,
                                                            level_mesh[cur_level].cell_conn );MB_CHK_ERR( error );
         level_mesh[cur_level].num_cells = estL[3];
  
         Range newcells( level_mesh[cur_level].start_cell, level_mesh[cur_level].start_cell + estL[3] - 1 );
         error = mbImpl->add_entities( *set, newcells );MB_CHK_ERR( error );
         level_mesh[cur_level].cells = newcells;
     }
     else
         level_mesh[cur_level].num_cells = 0;
  
     // Resize the ahf maps
     error = ahf->resize_hf_maps( level_mesh[cur_level].start_vertex, level_mesh[cur_level].num_verts,
                                  level_mesh[cur_level].start_edge, level_mesh[cur_level].num_edges,
                                  level_mesh[cur_level].start_face, level_mesh[cur_level].num_faces,
                                  level_mesh[cur_level].start_cell, level_mesh[cur_level].num_cells );MB_CHK_ERR( error );
  
     error = ahf->update_entity_ranges( *set );MB_CHK_ERR( error );
  
     // If the mesh type changes, then update the member variable in ahf to use the applicable
     // adjacency matrix
     MESHTYPE nwmesh = ahf->get_mesh_type( level_mesh[cur_level].num_verts, level_mesh[cur_level].num_edges,
                                           level_mesh[cur_level].num_faces, level_mesh[cur_level].num_cells );MB_CHK_ERR( error );
     if( ahf->thismeshtype != nwmesh ) ahf->thismeshtype = nwmesh;
  
     return MB_SUCCESS;
 }

References _incells, _infaces, moab::Core::add_entities(), ahf, moab::ReadUtilIface::assign_ids(), moab::Range::begin(), moab::NestedRefine::level_memory::cells, moab::Core::create_meshset(), moab::NestedRefine::level_memory::edges, moab::error(), ErrorCode, moab::NestedRefine::level_memory::faces, moab::ReadUtilIface::get_element_connect(), moab::HalfFacetRep::get_index_in_lmap(), moab::HalfFacetRep::get_mesh_type(), moab::ReadUtilIface::get_node_coords(), GLOBAL_ID_TAG_NAME, moab::HalfFacetRep::lConnMap2D, moab::HalfFacetRep::lConnMap3D, level_mesh, MB_CHK_ERR, MB_CHK_SET_ERR, MB_SUCCESS, MBEDGE, mbImpl, MESHSET_SET, moab::NestedRefine::level_memory::num_cells, moab::NestedRefine::level_memory::num_edges, moab::NestedRefine::level_memory::num_faces, moab::NestedRefine::level_memory::num_verts, moab::HalfFacetRep::LocalMaps3D::num_verts_in_cell, moab::HalfFacetRep::LocalMaps2D::num_verts_in_face, moab::Interface::query_interface(), moab::HalfFacetRep::resize_hf_maps(), moab::Core::tag_get_handle(), moab::HalfFacetRep::thismeshtype, moab::Core::type_from_handle(), moab::HalfFacetRep::update_entity_ranges(), and moab::NestedRefine::level_memory::verts.

Referenced by generate_hm().

◆ estimate_hm_storage()

ErrorCode moab::NestedRefine::estimate_hm_storage	(	EntityHandle	set,
		int	level_degree,
		int	cur_level,
		int	hmest[4]
	)

protected

Definition at line 564 of file NestedRefine.cpp.

 {
     ErrorCode error;
  
     // Obtain the size of input mesh.
     int nverts_prev, nedges_prev, nfaces_prev, ncells_prev;
     if( cur_level )
     {
         nverts_prev = level_mesh[cur_level - 1].num_verts;
         nedges_prev = level_mesh[cur_level - 1].num_edges;
         nfaces_prev = level_mesh[cur_level - 1].num_faces;
         ncells_prev = level_mesh[cur_level - 1].num_cells;
     }
     else
     {
         nverts_prev = _inverts.size();
         nedges_prev = _inedges.size();
         nfaces_prev = _infaces.size();
         ncells_prev = _incells.size();
     }
  
     // Estimate mesh size of current level mesh.
     int nedges = 0, nfaces = 0;
     error = count_subentities( set, cur_level - 1, &nedges, &nfaces );MB_CHK_ERR( error );
  
     int d      = get_index_from_degree( level_degree );
     int nverts = refTemplates[MBEDGE - 1][d].nv_edge * nedges;
     hmest[0]   = nverts_prev + nverts;
     hmest[1]   = nedges_prev * refTemplates[MBEDGE - 1][d].total_new_ents;
     hmest[2]   = 0;
     hmest[3]   = 0;
  
     int findex, cindex;
     if( nfaces_prev != 0 )
     {
         EntityHandle start_face;
         if( cur_level )
             start_face = level_mesh[cur_level - 1].start_face;
         else
             start_face = *_infaces.begin();
         findex   = mbImpl->type_from_handle( start_face ) - 1;
         hmest[2] = nfaces_prev * refTemplates[findex][d].total_new_ents;
  
         if( meshdim == 2 ) hmest[0] += refTemplates[findex][d].nv_face * nfaces_prev;
  
         if( meshdim == 3 ) hmest[1] += nfaces_prev * intFacEdg[findex - 1][d].nie;
     }
  
     if( ncells_prev != 0 )
     {
         cindex   = mbImpl->type_from_handle( *( _incells.begin() ) ) - 1;
         hmest[3] = ncells_prev * refTemplates[cindex][d].total_new_ents;
  
         hmest[0] += refTemplates[cindex][d].nv_face * nfaces;
         hmest[0] += refTemplates[cindex][d].nv_cell * ncells_prev;
     }
  
     return MB_SUCCESS;
 }

Referenced by generate_hm().

◆ exchange_ghosts()

ErrorCode moab::NestedRefine::exchange_ghosts	(	std::vector< EntityHandle > &	lsets,
		int	num_glayers
	)

Definition at line 454 of file NestedRefine.cpp.

 {
     ErrorCode error;
  
     if( hasghost ) return MB_SUCCESS;
  
     hasghost = true;
 #ifdef MOAB_HAVE_MPI
     error = pcomm->exchange_ghost_cells( meshdim, 0, num_glayers, 0, true, false );MB_CHK_ERR( error );
     {
         Range empty_range;
         error = pcomm->exchange_tags( GLOBAL_ID_TAG_NAME, empty_range );MB_CHK_ERR( error );
         // error = pcomm->assign_global_ids(lsets[i], 0, 1, false, true, false);MB_CHK_ERR(error);
     }
 #else
     MB_SET_ERR( MB_FAILURE, "Requesting ghost layers for a serial mesh" );
 #endif
  
     Range* lverts = new Range[lsets.size()];
     Range* lents  = new Range[lsets.size()];
     for( size_t i = 0; i < lsets.size(); i++ )
     {
         error = mbImpl->get_entities_by_dimension( lsets[i], meshdim, lents[i] );MB_CHK_ERR( error );
         error = mbImpl->get_connectivity( lents[i], lverts[i] );MB_CHK_ERR( error );
  
         for( int gl = 0; gl < num_glayers; gl++ )
         {
             error = mbImpl->get_adjacencies( lverts[i], meshdim, false, lents[i], Interface::UNION );MB_CHK_ERR( error );
             error = mbImpl->get_connectivity( lents[i], lverts[i] );MB_CHK_ERR( error );
         }
     }
     for( size_t i = 0; i < lsets.size(); i++ )
     {
         error = mbImpl->add_entities( lsets[i], lverts[i] );MB_CHK_ERR( error );
         error = mbImpl->add_entities( lsets[i], lents[i] );MB_CHK_ERR( error );
     }
  
     delete[] lverts;
     delete[] lents;
     return MB_SUCCESS;
 }

References moab::Core::add_entities(), moab::error(), ErrorCode, moab::ParallelComm::exchange_ghost_cells(), moab::ParallelComm::exchange_tags(), moab::Core::get_adjacencies(), moab::Core::get_connectivity(), moab::Core::get_entities_by_dimension(), GLOBAL_ID_TAG_NAME, hasghost, MB_CHK_ERR, MB_SET_ERR, MB_SUCCESS, mbImpl, meshdim, pcomm, and moab::Interface::UNION.

Referenced by main().

◆ find_shortest_diagonal_octahedron()

int moab::NestedRefine::find_shortest_diagonal_octahedron	(	int	cur_level,
		int	deg,
		EntityHandle *	vbuffer
	)

protected

Definition at line 4580 of file NestedRefine.cpp.

 {
     ErrorCode error;
     double coords[18];
     error = get_octahedron_corner_coords( cur_level, deg, vbuffer, coords );
     if( error != MB_SUCCESS ) MB_SET_ERR( MB_FAILURE, "Error in obtaining octahedron corner coordinates" );
  
     int diag_map[6] = { 1, 3, 2, 4, 5, 0 };
     double length   = std::numeric_limits< double >::max();
  
     int diag = 0;
     double x, y, z;
     x = y = z = 0;
  
     for( int d = 0; d < 3; d++ )
     {
         int id1     = diag_map[2 * d];
         int id2     = diag_map[2 * d + 1];
         x           = coords[3 * id1] - coords[3 * id2];
         y           = coords[3 * id1 + 1] - coords[3 * id2 + 1];
         z           = coords[3 * id1 + 2] - coords[3 * id2 + 2];
         double dlen = sqrt( x * x + y * y + z * z );
         if( dlen < length )
         {
             length = dlen;
             diag   = d + 1;
         }
     }
  
     return diag;
 }

References moab::error(), ErrorCode, get_octahedron_corner_coords(), length(), MB_SET_ERR, and MB_SUCCESS.

Referenced by subdivide_tets().

◆ generate_hm()

ErrorCode moab::NestedRefine::generate_hm	(	int *	level_degrees,
		int	num_level,
		EntityHandle *	hm_set,
		bool	optimize
	)

protected

Definition at line 715 of file NestedRefine.cpp.

 {
     ErrorCode error;
  
     Tag gidtag;
     error = mbImpl->tag_get_handle( GLOBAL_ID_TAG_NAME, gidtag );MB_CHK_ERR( error );
  
     nlevels = num_level;
  
     timeall.tm_total   = 0;
     timeall.tm_refine  = 0;
     timeall.tm_resolve = 0;
  
     for( int l = 0; l < num_level; l++ )
     {
         double tstart;
         tstart = tm->time_elapsed();
  
         // Estimate storage
         int hmest[4] = { 0, 0, 0, 0 };
         EntityHandle set;
         if( l )
             set = hm_set[l - 1];
         else
             set = _rset;
         error = estimate_hm_storage( set, level_degrees[l], l, hmest );MB_CHK_ERR( error );
  
         // Create arrays for storing the current level
         error = create_hm_storage_single_level( &hm_set[l], l, hmest );MB_CHK_ERR( error );
  
         // Copy the old vertices along with their coordinates
         error = copy_vertices_from_prev_level( l );MB_CHK_ERR( error );
  
         // Create the new entities and new vertices
         error = construct_hm_entities( l, level_degrees[l] );MB_CHK_ERR( error );
  
         timeall.tm_refine += tm->time_elapsed() - tstart;
  
         // Go into parallel communication
         if( !optimize )
         {
 #ifdef MOAB_HAVE_MPI
             if( pcomm && ( pcomm->size() > 1 ) )
             {
                 double tpstart = tm->time_elapsed();
                 error          = resolve_shared_ents_parmerge( l, hm_set[l] );MB_CHK_ERR( error );
                 timeall.tm_resolve += tm->time_elapsed() - tpstart;
             }
 #endif
         }
     }
  
     if( optimize )
     {
 #ifdef MOAB_HAVE_MPI
         if( pcomm && ( pcomm->size() > 1 ) )
         {
             double tpstart = tm->time_elapsed();
             error          = resolve_shared_ents_opt( hm_set, nlevels );MB_CHK_ERR( error );
             timeall.tm_resolve = tm->time_elapsed() - tpstart;
         }
 #endif
     }
     timeall.tm_total = timeall.tm_refine + timeall.tm_resolve;
  
     return MB_SUCCESS;
 }

References _rset, construct_hm_entities(), copy_vertices_from_prev_level(), create_hm_storage_single_level(), moab::error(), ErrorCode, estimate_hm_storage(), GLOBAL_ID_TAG_NAME, MB_CHK_ERR, MB_SUCCESS, mbImpl, nlevels, pcomm, moab::ParallelComm::size(), moab::Core::tag_get_handle(), moab::CpuTimer::time_elapsed(), timeall, tm, moab::NestedRefine::codeperf::tm_refine, moab::NestedRefine::codeperf::tm_resolve, and moab::NestedRefine::codeperf::tm_total.

Referenced by generate_mesh_hierarchy().

◆ generate_mesh_hierarchy()

ErrorCode moab::NestedRefine::generate_mesh_hierarchy	(	int	num_level,
		int *	level_degrees,
		std::vector< EntityHandle > &	level_sets,
		bool	optimize = `false`
	)

Generate a mesh hierarchy.

Given a mesh, generate a sequence of meshes via uniform refinement. The inputs are: a) an array(level_degrees) storing the degrees which will be used to refine the previous level mesh to generate a new level and b) the total number of levels(should be same length as that of the array in a). Each mesh level in the hierarchy are stored in different meshsets whose handles are returned after the hierarchy generation. These handles can be used to work with a specific mesh level.

Parameters

level_degrees	Integer array storing the degrees used in each level.
num_level	The total number of levels in the hierarchy.
hm_set	EntityHandle STL vector that returns the handles of the sets created for each mesh level.

Definition at line 114 of file NestedRefine.cpp.

 {
     assert( num_level > 0 );
     nlevels = num_level;
  
     ErrorCode error;
     std::vector< moab::EntityHandle > hmsets( num_level );
  
     if( meshdim <= 2 )
     {
         for( int i = 0; i < num_level; i++ )
         {
             assert( ( level_degrees[i] == 2 ) || ( level_degrees[i] == 3 ) || ( level_degrees[i] == 5 ) );
             level_dsequence[i] = level_degrees[i];
         }
     }
     else
     {
         for( int i = 0; i < num_level; i++ )
         {
             assert( ( level_degrees[i] == 2 ) || ( level_degrees[i] == 3 ) );
             level_dsequence[i] = level_degrees[i];
         }
     }
  
     error = generate_hm( level_degrees, num_level, &hmsets[0], optimize );MB_CHK_ERR( error );
  
     // copy the entity handles
     level_sets.resize( num_level + 1 );
     level_sets[0] = _rset;
     for( int i = 0; i < num_level; i++ )
         level_sets[i + 1] = hmsets[i];
  
     return MB_SUCCESS;
 }

References _rset, moab::error(), ErrorCode, generate_hm(), level_dsequence, MB_CHK_ERR, MB_SUCCESS, meshdim, and nlevels.

Referenced by main().

◆ get_adjacencies()

ErrorCode moab::NestedRefine::get_adjacencies	(	const EntityHandle	source_entity,
		const unsigned int	target_dimension,
		std::vector< EntityHandle > &	target_entities
	)

Get the adjacencies associated with an entity.

Given an entity of dimension d, gather all the adjacent D dimensional entities where D >, = , < d .

Parameters

source_entity	EntityHandle to which adjacent entities have to be found.
target_dimension	Int Dimension of the desired adjacent entities.
target_entities	Vector in which the adjacent EntityHandle are returned.

Definition at line 223 of file NestedRefine.cpp.

 {
     ErrorCode error;
     error = ahf->get_adjacencies( source_entity, target_dimension, target_entities );MB_CHK_ERR( error );
  
     return MB_SUCCESS;
 }

References ahf, moab::error(), ErrorCode, moab::HalfFacetRep::get_adjacencies(), MB_CHK_ERR, and MB_SUCCESS.

◆ get_connectivity()

ErrorCode moab::NestedRefine::get_connectivity	(	EntityHandle	ent,
		int	level,
		std::vector< EntityHandle > &	conn
	)

Given an entity and its level, return its connectivity.

Given an entity at a certain level, it finds the connectivity via direct access to a stored internal pointer to the memory to connectivity sequence for the given level.

Parameters

ent	EntityHandle of the entity
level	Integer level of the entity for which connectivity is requested
conn	std::vector returning the connectivity of the entity

Definition at line 153 of file NestedRefine.cpp.

 {
     ErrorCode error;
     EntityType type = mbImpl->type_from_handle( ent );
     EntityHandle start_ent;
     if( !conn.empty() ) conn.clear();
     if( level > 0 )
     {
         if( type == MBEDGE )
         {
             conn.reserve( 2 );
             start_ent       = level_mesh[level - 1].start_edge;
             EntityID offset = ID_FROM_HANDLE( ent ) - ID_FROM_HANDLE( start_ent );
             conn.push_back( level_mesh[level - 1].edge_conn[2 * offset] );
             conn.push_back( level_mesh[level - 1].edge_conn[2 * offset + 1] );
         }
         else if( type == MBTRI || type == MBQUAD )
         {
             int num_corners = ahf->lConnMap2D[type - 2].num_verts_in_face;
             conn.reserve( num_corners );
             start_ent       = level_mesh[level - 1].start_face;
             EntityID offset = ID_FROM_HANDLE( ent ) - ID_FROM_HANDLE( start_ent );
  
             for( int i = 0; i < num_corners; i++ )
                 conn.push_back( level_mesh[level - 1].face_conn[num_corners * offset + i] );
         }
         else if( type == MBTET || type == MBHEX )
         {
             int index       = ahf->get_index_in_lmap( *_incells.begin() );
             int num_corners = ahf->lConnMap3D[index].num_verts_in_cell;
             conn.reserve( num_corners );
             start_ent       = level_mesh[level - 1].start_cell;
             EntityID offset = ID_FROM_HANDLE( ent ) - ID_FROM_HANDLE( start_ent );
             for( int i = 0; i < num_corners; i++ )
                 conn.push_back( level_mesh[level - 1].cell_conn[num_corners * offset + i] );
         }
         else
             MB_SET_ERR( MB_FAILURE, "Requesting connectivity for an unsupported entity type" );
     }
     else
     {
         error = mbImpl->get_connectivity( &ent, 1, conn );MB_CHK_ERR( error );
     }
  
     return MB_SUCCESS;
 }

References _incells, ahf, moab::Range::begin(), moab::NestedRefine::level_memory::cell_conn, moab::error(), ErrorCode, moab::NestedRefine::level_memory::face_conn, moab::Core::get_connectivity(), moab::HalfFacetRep::get_index_in_lmap(), moab::ID_FROM_HANDLE(), moab::HalfFacetRep::lConnMap2D, moab::HalfFacetRep::lConnMap3D, level_mesh, MB_CHK_ERR, MB_SET_ERR, MB_SUCCESS, MBEDGE, MBHEX, mbImpl, MBQUAD, MBTET, MBTRI, moab::HalfFacetRep::LocalMaps3D::num_verts_in_cell, moab::HalfFacetRep::LocalMaps2D::num_verts_in_face, moab::NestedRefine::level_memory::start_cell, moab::NestedRefine::level_memory::start_edge, moab::NestedRefine::level_memory::start_face, and moab::Core::type_from_handle().

Referenced by construct_hm_1D(), construct_hm_2D(), get_local_vid(), reorder_indices(), subdivide_cells(), subdivide_tets(), update_global_ahf_1D_sub(), update_global_ahf_2D(), and update_global_ahf_2D_sub().

◆ get_coordinates()

ErrorCode moab::NestedRefine::get_coordinates	(	EntityHandle *	verts,
		int	num_verts,
		int	level,
		double *	coords
	)

Given a vector of vertices and their level, return its coordinates.

Given a vector of vertices at a certain level, it finds the coordinates via direct access to a stored internal pointer to the memory to coordinate sequence for the given level.

Parameters

verts	std::vector of the entity handles of the vertices
num_verts	The number of vertices
level	Integer level of the entity for which connectivity is requested
coords	double pointer returning the coordinates of the vertices

Definition at line 200 of file NestedRefine.cpp.

 {
     if( level > 0 )
     {
         EntityID vstart = ID_FROM_HANDLE( level_mesh[level - 1].start_vertex );
         for( int i = 0; i < num_verts; i++ )
         {
             const EntityHandle& vid = verts[i];
             EntityID offset         = ID_FROM_HANDLE( vid ) - vstart;
             coords[3 * i]           = level_mesh[level - 1].coordinates[0][offset];
             coords[3 * i + 1]       = level_mesh[level - 1].coordinates[1][offset];
             coords[3 * i + 2]       = level_mesh[level - 1].coordinates[2][offset];
         }
     }
     else
     {
         ErrorCode error;
         error = mbImpl->get_coords( verts, num_verts, coords );MB_CHK_ERR( error );
     }
  
     return MB_SUCCESS;
 }

References moab::NestedRefine::level_memory::coordinates, moab::error(), ErrorCode, moab::Core::get_coords(), moab::ID_FROM_HANDLE(), level_mesh, MB_CHK_ERR, MB_SUCCESS, and mbImpl.

Referenced by construct_hm_2D(), subdivide_cells(), and subdivide_tets().

◆ get_index_from_degree()

int moab::NestedRefine::get_index_from_degree ( int degree )

protected

Definition at line 4634 of file NestedRefine.cpp.

 {
     int d = deg_index.find( degree )->second;
     return d;
 }

References deg_index.

Referenced by child_to_parent(), compute_coordinates(), construct_hm_1D(), construct_hm_2D(), estimate_hm_storage(), get_lid_inci_child(), parent_to_child(), subdivide_cells(), subdivide_tets(), update_global_ahf_1D(), update_global_ahf_1D_sub(), update_global_ahf_2D(), update_global_ahf_2D_sub(), update_global_ahf_3D(), update_local_ahf(), and update_tracking_verts().

◆ get_lid_inci_child()

ErrorCode moab::NestedRefine::get_lid_inci_child	(	EntityType	type,
		int	deg,
		int	lfid,
		int	leid,
		std::vector< int > &	child_ids,
		std::vector< int > &	child_lvids
	)

protected

Definition at line 3985 of file NestedRefine.cpp.

 {
     int index = ahf->get_index_in_lmap( *_incells.begin() );
     int d     = get_index_from_degree( deg );
  
     // int lv0 = ahf->lConnMap3D[index].e2v[leid][0];
     //  int lv1 = ahf->lConnMap3D[index].e2v[leid][1];
     int nvpc = ahf->lConnMap3D[index].num_verts_in_cell;
  
     int nv  = refTemplates[type - 1][d].nv_edge;
     int nch = refTemplates[type - 1][d].ents_on_pent[lfid][0];
  
     for( int i = 0; i < nch; i++ )
     {
         int id = refTemplates[type - 1][d].ents_on_pent[lfid][i + 1] - 1;
         for( int j = 0; j < nvpc; j++ )
         {
             int lv = refTemplates[type - 1][d].ents_conn[id][j];
             for( int k = 0; k < nv; k++ )
             {
                 if( lv == refTemplates[type - 1][d].vert_on_edges[leid][k] )
                 {
                     child_ids.push_back( id );
                     child_lvids.push_back( j );
                 }
             }
         }
     }
  
     return MB_SUCCESS;
 }

References _incells, ahf, moab::Range::begin(), moab::NestedRefine::refPatterns::ents_conn, moab::NestedRefine::refPatterns::ents_on_pent, get_index_from_degree(), moab::HalfFacetRep::get_index_in_lmap(), moab::HalfFacetRep::lConnMap3D, MB_SUCCESS, moab::HalfFacetRep::LocalMaps3D::num_verts_in_cell, moab::NestedRefine::refPatterns::nv_edge, and refTemplates.

◆ get_local_vid()

int moab::NestedRefine::get_local_vid	(	EntityHandle	vid,
		EntityHandle	ent,
		int	level
	)

protected

Definition at line 4612 of file NestedRefine.cpp.

 {
     ErrorCode error;
     // Given a vertex, find its local id in the given entity
     std::vector< EntityHandle > conn;
  
     error = get_connectivity( ent, level + 1, conn );
     if( error != MB_SUCCESS ) MB_SET_ERR( MB_FAILURE, "Error in getting connectivity of the requested entity" );
  
     int lid = -1;
     for( int i = 0; i < (int)conn.size(); i++ )
     {
         if( conn[i] == vid )
         {
             lid = i;
             break;
         }
     }
     if( lid < 0 ) MB_SET_ERR( MB_FAILURE, "Error in getting local vertex id in the given entity" );
     return lid;
 }

References moab::error(), ErrorCode, get_connectivity(), MB_SET_ERR, and MB_SUCCESS.

Referenced by update_global_ahf_1D(), update_global_ahf_1D_sub(), update_global_ahf_2D(), update_global_ahf_2D_sub(), and update_global_ahf_3D().

◆ get_octahedron_corner_coords()

ErrorCode moab::NestedRefine::get_octahedron_corner_coords	(	int	cur_level,
		int	deg,
		EntityHandle *	vbuffer,
		double *	ocoords
	)

protected

Definition at line 4544 of file NestedRefine.cpp.

 {
     int lid[6] = { 0, 0, 0, 0, 0, 0 };
  
     if( deg == 2 )
     {
         lid[0] = 5;
         lid[1] = 8;
         lid[2] = 9;
         lid[3] = 6;
         lid[4] = 4;
         lid[5] = 7;
     }
     else if( deg == 3 )
     {
         lid[0] = 19;
         lid[1] = 16;
         lid[2] = 18;
         lid[3] = 9;
         lid[4] = 4;
         lid[5] = 10;
     }
  
     EntityHandle vstart = level_mesh[cur_level].start_vertex;
  
     for( int i = 0; i < 6; i++ )
     {
         EntityHandle vid   = vbuffer[lid[i]];
         ocoords[3 * i]     = level_mesh[cur_level].coordinates[0][vid - vstart];
         ocoords[3 * i + 1] = level_mesh[cur_level].coordinates[1][vid - vstart];
         ocoords[3 * i + 2] = level_mesh[cur_level].coordinates[2][vid - vstart];
     }
  
     return MB_SUCCESS;
 }

References moab::NestedRefine::level_memory::coordinates, level_mesh, MB_SUCCESS, and moab::NestedRefine::level_memory::start_vertex.

Referenced by find_shortest_diagonal_octahedron().

◆ get_vertex_duplicates()

ErrorCode moab::NestedRefine::get_vertex_duplicates	(	EntityHandle	vertex,
		int	level,
		EntityHandle &	dupvertex
	)

Definition at line 425 of file NestedRefine.cpp.

 {
     if( ( vertex - *_inverts.begin() ) > _inverts.size() )
         MB_SET_ERR( MB_FAILURE, "Requesting duplicates for non-coarse vertices" );
  
     dupvertex = level_mesh[level - 1].start_vertex + ( vertex - *_inverts.begin() );
  
     return MB_SUCCESS;
 }

References _inverts, moab::Range::begin(), level_mesh, MB_SET_ERR, MB_SUCCESS, moab::Range::size(), and moab::NestedRefine::level_memory::start_vertex.

◆ initialize()

ErrorCode moab::NestedRefine::initialize ( )

Definition at line 53 of file NestedRefine.cpp.

 {
     ErrorCode error;
  
     tm = new CpuTimer();
     if( !tm ) return MB_MEMORY_ALLOCATION_FAILED;
  
 #ifdef MOAB_HAVE_AHF
     ahf = mbImpl->a_half_facet_rep();
 #else
     ahf = new HalfFacetRep( mbImpl, pcomm, _rset, true );
     if( !ahf ) return MB_MEMORY_ALLOCATION_FAILED;
 #endif
  
     // Check for mixed entity type
     bool chk_mixed = ahf->check_mixed_entity_type();
     if( chk_mixed ) MB_SET_ERR( MB_NOT_IMPLEMENTED, "Encountered a mesh with mixed entity types" );
  
     error = ahf->initialize();MB_CHK_ERR( error );
     error = ahf->get_entity_ranges( _inverts, _inedges, _infaces, _incells );MB_CHK_ERR( error );
  
     // Check for supported entity type
     if( !_incells.empty() )
     {
         EntityType type = mbImpl->type_from_handle( _incells[0] );
         if( type != MBTET && type != MBHEX )
             MB_SET_ERR( MB_FAILURE, "Not supported 3D entity types: MBPRISM, MBPYRAMID, MBKNIFE, MBPOLYHEDRON" );
  
         meshdim    = 3;
         elementype = type;
     }
     else if( !_infaces.empty() )
     {
         EntityType type = mbImpl->type_from_handle( _infaces[0] );
         if( type == MBPOLYGON ) MB_SET_ERR( MB_FAILURE, "Not supported 2D entity type: POLYGON" );
  
         meshdim    = 2;
         elementype = type;
     }
     else if( !_inedges.empty() )
     {
         meshdim    = 1;
         elementype = MBEDGE;
     }
     else
         MB_SET_ERR( MB_NOT_IMPLEMENTED, "Encountered a mixed-dimensional or invalid mesh" );
  
     // Initialize std::map to get indices of degrees.
     deg_index[2] = 0;
     deg_index[3] = 1;
     deg_index[5] = 2;
  
     // Set ghost flag to false
     hasghost = false;
     return MB_SUCCESS;
 }

References _incells, _inedges, _infaces, _inverts, _rset, ahf, moab::HalfFacetRep::check_mixed_entity_type(), deg_index, elementype, moab::Range::empty(), moab::error(), ErrorCode, moab::HalfFacetRep::get_entity_ranges(), hasghost, moab::HalfFacetRep::initialize(), MB_CHK_ERR, MB_MEMORY_ALLOCATION_FAILED, MB_NOT_IMPLEMENTED, MB_SET_ERR, MB_SUCCESS, MBEDGE, MBHEX, mbImpl, MBPOLYGON, MBTET, meshdim, pcomm, tm, and moab::Core::type_from_handle().

Referenced by NestedRefine().

◆ is_cell_on_boundary()

bool moab::NestedRefine::is_cell_on_boundary ( const EntityHandle & entity )

protected

Definition at line 4138 of file NestedRefine.cpp.

 {
     if( meshdim != 3 )
         MB_SET_ERR( MB_FAILURE, "Requesting boundary information for a cell entity type on a curve or surface mesh" );
  
     bool is_border = false;
     int index      = ahf->get_index_in_lmap( *_incells.begin() );
     int nfpc       = ahf->lConnMap3D[index].num_faces_in_cell;
     EntityHandle sibents[6];
     int siblids[6];
  
     ErrorCode error = ahf->get_sibling_map( elementype, entity, &sibents[0], &siblids[0], nfpc );MB_CHK_ERR( error );
  
     for( int i = 0; i < nfpc; i++ )
     {
         if( sibents[i] == 0 )
         {
             is_border = true;
             break;
         }
     }
     return is_border;
 }

References _incells, ahf, moab::Range::begin(), elementype, moab::error(), ErrorCode, moab::HalfFacetRep::get_index_in_lmap(), moab::HalfFacetRep::get_sibling_map(), moab::HalfFacetRep::lConnMap3D, MB_CHK_ERR, MB_SET_ERR, meshdim, and moab::HalfFacetRep::LocalMaps3D::num_faces_in_cell.

Referenced by is_entity_on_boundary().

◆ is_edge_on_boundary()

bool moab::NestedRefine::is_edge_on_boundary ( const EntityHandle & entity )

protected

Definition at line 4053 of file NestedRefine.cpp.

 {
     ErrorCode error;
     bool is_border = false;
     if( meshdim == 1 )  // The edge has a vertex on the boundary in the curve mesh
     {
         EntityHandle sibents[2];
         int siblids[2];
         error = ahf->get_sibling_map( MBEDGE, entity, &sibents[0], &siblids[0], 2 );MB_CHK_ERR( error );
         for( int i = 0; i < 2; i++ )
         {
             if( sibents[i] == 0 )
             {
                 is_border = true;
                 break;
             }
         }
     }
     else if( meshdim == 2 )  // The edge is on the boundary of the 2d mesh
     {
         std::vector< EntityHandle > adjents;
         error = ahf->get_up_adjacencies_2d( entity, adjents );MB_CHK_ERR( error );
         if( adjents.size() == 1 ) is_border = true;
     }
     else if( meshdim == 3 )  // The edge is part of a face on the boundary of the 3d mesh
     {
         std::vector< EntityHandle > adjents;
         std::vector< int > leids;
         error = ahf->get_up_adjacencies_edg_3d( entity, adjents, &leids );MB_CHK_ERR( error );
         assert( !adjents.empty() );
  
         int index = ahf->get_index_in_lmap( adjents[0] );
         int nhf   = ahf->lConnMap3D[index].num_faces_in_cell;
  
         for( int i = 0; i < (int)adjents.size(); i++ )
         {
             EntityHandle sibents[6];
             int siblids[6];
             error = ahf->get_sibling_map( elementype, adjents[0], &sibents[0], &siblids[0], nhf );MB_CHK_ERR( error );
             for( int k = 0; k < 2; k++ )
             {
                 int hf = ahf->lConnMap3D[index].e2hf[leids[0]][k];
                 if( sibents[hf] == 0 )
                 {
                     is_border = true;
                     break;
                 }
             }
         }
     }
     return is_border;
 }

References ahf, moab::HalfFacetRep::LocalMaps3D::e2hf, elementype, moab::error(), ErrorCode, moab::HalfFacetRep::get_index_in_lmap(), moab::HalfFacetRep::get_sibling_map(), moab::HalfFacetRep::get_up_adjacencies_2d(), moab::HalfFacetRep::get_up_adjacencies_edg_3d(), moab::HalfFacetRep::lConnMap3D, MB_CHK_ERR, MBEDGE, meshdim, and moab::HalfFacetRep::LocalMaps3D::num_faces_in_cell.

Referenced by is_entity_on_boundary().

◆ is_entity_on_boundary()

bool moab::NestedRefine::is_entity_on_boundary ( const EntityHandle & entity )

Given an entity at a certain level, it returns a boolean value true if it lies on the domain boundary.

Parameters

entity

Definition at line 435 of file NestedRefine.cpp.

 {
     bool is_border  = false;
     EntityType type = mbImpl->type_from_handle( entity );
  
     if( type == MBVERTEX )
         is_border = is_vertex_on_boundary( entity );
     else if( type == MBEDGE )
         is_border = is_edge_on_boundary( entity );
     else if( type == MBTRI || type == MBQUAD )
         is_border = is_face_on_boundary( entity );
     else if( type == MBTET || type == MBHEX )
         is_border = is_cell_on_boundary( entity );
     else
         MB_SET_ERR( MB_FAILURE, "Requesting boundary information for unsupported entity type" );
  
     return is_border;
 }

References is_cell_on_boundary(), is_edge_on_boundary(), is_face_on_boundary(), is_vertex_on_boundary(), MB_SET_ERR, MBEDGE, MBHEX, mbImpl, MBQUAD, MBTET, MBTRI, MBVERTEX, and moab::Core::type_from_handle().

◆ is_face_on_boundary()

bool moab::NestedRefine::is_face_on_boundary ( const EntityHandle & entity )

protected

Definition at line 4106 of file NestedRefine.cpp.

 {
     ErrorCode error;
     bool is_border = false;
  
     if( meshdim == 1 )
         MB_SET_ERR( MB_FAILURE, "Requesting boundary information for a face entity type on a curve mesh" );
     else if( meshdim == 2 )  // The face has a local edge on the boundary of the 2d mesh
     {
         EntityHandle sibents[4];
         int siblids[4];
         int nepf = ahf->lConnMap2D[elementype - 2].num_verts_in_face;
         error    = ahf->get_sibling_map( elementype, entity, &sibents[0], &siblids[0], nepf );MB_CHK_ERR( error );
  
         for( int i = 0; i < nepf; i++ )
         {
             if( sibents[i] == 0 )
             {
                 is_border = true;
                 break;
             }
         }
     }
     else if( meshdim == 3 )  // The face lies on the boundary of the 3d mesh
     {
         std::vector< EntityHandle > adjents;
         error = ahf->get_up_adjacencies_face_3d( entity, adjents );MB_CHK_ERR( error );
         if( adjents.size() == 1 ) is_border = true;
     }
     return is_border;
 }

References ahf, elementype, moab::error(), ErrorCode, moab::HalfFacetRep::get_sibling_map(), moab::HalfFacetRep::get_up_adjacencies_face_3d(), moab::HalfFacetRep::lConnMap2D, MB_CHK_ERR, MB_SET_ERR, meshdim, and moab::HalfFacetRep::LocalMaps2D::num_verts_in_face.

Referenced by is_entity_on_boundary().

◆ is_vertex_on_boundary()

bool moab::NestedRefine::is_vertex_on_boundary ( const EntityHandle & entity )

protected

Boundary extraction functions Given a vertex at a certain level, it returns a boolean value true if it lies on the domain boundary. Note: This is a specialization of the NestedRefine::is_entity_on_boundary function and applies only to vertex queries.

Parameters

entity

Definition at line 4026 of file NestedRefine.cpp.

 {
     ErrorCode error;
     EntityHandle sibents[27];
     int siblids[27];
     std::vector< EntityHandle > ent;
     std::vector< int > lid;
  
     int nhf;
     if( elementype == MBEDGE )
         nhf = 2;
     else if( ( elementype == MBTRI ) || ( elementype == MBQUAD ) )
         nhf = ahf->lConnMap2D[elementype - 2].num_verts_in_face;
     else if( ( elementype == MBTET ) || ( elementype == MBHEX ) )
     {
         int idx = ahf->get_index_in_lmap( *_incells.begin() );
         nhf     = ahf->lConnMap3D[idx].num_faces_in_cell;
     }
     else
         MB_SET_ERR( MB_FAILURE, "Requesting vertex boundary information for an unsupported entity type" );
  
     error = ahf->get_incident_map( elementype, vertex, ent, lid );MB_CHK_ERR( error );
     error = ahf->get_sibling_map( elementype, ent[0], &sibents[0], &siblids[0], nhf );MB_CHK_ERR( error );
  
     return ( sibents[lid[0]] == 0 );
 }

References _incells, ahf, moab::Range::begin(), elementype, moab::error(), ErrorCode, moab::HalfFacetRep::get_incident_map(), moab::HalfFacetRep::get_index_in_lmap(), moab::HalfFacetRep::get_sibling_map(), moab::HalfFacetRep::lConnMap2D, moab::HalfFacetRep::lConnMap3D, MB_CHK_ERR, MB_SET_ERR, MBEDGE, MBHEX, MBQUAD, MBTET, MBTRI, moab::HalfFacetRep::LocalMaps3D::num_faces_in_cell, and moab::HalfFacetRep::LocalMaps2D::num_verts_in_face.

Referenced by is_entity_on_boundary().

◆ parent_to_child()

ErrorCode moab::NestedRefine::parent_to_child	(	EntityHandle	parent,
		int	parent_level,
		int	child_level,
		std::vector< EntityHandle > &	children
	)

Given an entity from a certain level, it returns a std::vector of all its children from the requested child level. NOTE: This query does not support vertices.

Parameters

parent	EntityHandle of the entity whose children in subsequent level is requested
parent_level	Mesh level where the parent exists
child_level	Mesh level from which its children are requested
children	Vector containing all childrens from the requested child_level

Definition at line 285 of file NestedRefine.cpp.

 {
     assert( ( child_level > 0 ) && ( child_level > parent_level ) );
     EntityType type = mbImpl->type_from_handle( parent );
     assert( type != MBVERTEX );
  
     int parent_index;
     if( type == MBEDGE )
     {
         if( parent_level > 0 )
             parent_index = parent - level_mesh[parent_level - 1].start_edge;
         else
             parent_index = _inedges.index( parent );
     }
     else if( type == MBTRI || type == MBQUAD )
     {
         if( parent_level > 0 )
             parent_index = parent - level_mesh[parent_level - 1].start_face;
         else
             parent_index = _infaces.index( parent );
     }
     else if( type == MBTET || type == MBHEX )
     {
         if( parent_level > 0 )
             parent_index = parent - level_mesh[parent_level - 1].start_cell;
         else
             parent_index = _incells.index( parent );
     }
     else
         MB_SET_ERR( MB_FAILURE, "Requesting children for unsupported entity type" );
  
     int start, end;
     start = end = parent_index;
     for( int i = parent_level; i < child_level; i++ )
     {
         int d   = get_index_from_degree( level_dsequence[i] );
         int nch = refTemplates[type - 1][d].total_new_ents;
         start   = start * nch;
         end     = end * nch + nch - 1;
     }
  
     int num_child = end - start;
     children.reserve( num_child );
  
     for( int i = start; i <= end; i++ )
     {
         EntityHandle child;
         if( type == MBEDGE )
             child = level_mesh[child_level - 1].start_edge + i;
         else if( type == MBTRI || type == MBQUAD )
             child = level_mesh[child_level - 1].start_face + i;
         else if( type == MBTET || type == MBHEX )
             child = level_mesh[child_level - 1].start_cell + i;
  
         children.push_back( child );
     }
  
     return MB_SUCCESS;
 }

References _incells, _inedges, _infaces, child, children, get_index_from_degree(), moab::Range::index(), level_dsequence, level_mesh, MB_SET_ERR, MB_SUCCESS, MBEDGE, MBHEX, mbImpl, MBQUAD, MBTET, MBTRI, MBVERTEX, refTemplates, moab::NestedRefine::level_memory::start_cell, moab::NestedRefine::level_memory::start_edge, moab::NestedRefine::level_memory::start_face, moab::NestedRefine::refPatterns::total_new_ents, and moab::Core::type_from_handle().

Referenced by update_special_tags(), and vertex_to_entities_down().

◆ print_maps_1D()

ErrorCode moab::NestedRefine::print_maps_1D ( int level )

protected

◆ print_maps_2D()

ErrorCode moab::NestedRefine::print_maps_2D	(	int	level,
		EntityType	type
	)

protected

◆ print_maps_3D()

ErrorCode moab::NestedRefine::print_maps_3D	(	int	level,
		EntityType	type
	)

protected

◆ reorder_indices() [1/4]

ErrorCode moab::NestedRefine::reorder_indices	(	EntityHandle *	face1_conn,
		EntityHandle *	face2_conn,
		int	nvF,
		int *	conn_map,
		int &	comb,
		int *	orient = `NULL`
	)

protected

Definition at line 4477 of file NestedRefine.cpp.

 {
     // Given connectivities of two faces and a degree, get the permuted indices of the children
     // faces w.r.t first face.
  
     // Step 1: First find the combination
     int nco = permutation[nvF - 3].num_comb;
     int c   = 0;
     for( int i = 0; i < nco; i++ )
     {
         int count = 0;
         for( int j = 0; j < nvF; j++ )
         {
             int id = permutation[nvF - 3].comb[i][j];
             if( face1_conn[j] == face2_conn[id] ) count += 1;
         }
  
         if( count == nvF )
         {
             c = i;
             break;
         }
     }
  
     if( c > nco ) MB_SET_ERR( MB_FAILURE, "Getting a combination number more than currently supported" );
  
     comb = c;
  
     if( orient ) orient[0] = permutation[nvF - 3].orient[c];
  
     for( int j = 0; j < nvF; j++ )
     {
         conn_map[j] = permutation[nvF - 3].comb[c][j];
     }
  
     return MB_SUCCESS;
 }

References moab::NestedRefine::pmat::comb, MB_SET_ERR, MB_SUCCESS, moab::NestedRefine::pmat::num_comb, moab::NestedRefine::pmat::orient, and permutation.

◆ reorder_indices() [2/4]

ErrorCode moab::NestedRefine::reorder_indices	(	int	cur_level,
		int	deg,
		EntityHandle	cell,
		int	lfid,
		EntityHandle	sib_cell,
		int	sib_lfid,
		int	index,
		int *	id_sib
	)

protected

Definition at line 4322 of file NestedRefine.cpp.

 {
     // Reorders the indices of either vertices or children cell local ids to match with order of the
     // given cell and a local face. index = 0 : vertices,
     //           = 1 : face
  
     assert( deg == 2 || deg == 3 );
  
     ErrorCode error;
     int idx = ahf->get_index_in_lmap( *_incells.begin() );
     int nvF = ahf->lConnMap3D[idx].hf2v_num[lfid];
     int nco = permutation[nvF - 3].num_comb;
  
     if( !index && ( ( nvF == 3 && deg == 3 ) || ( nvF == 4 && deg == 2 ) ) )
     {
         id_sib[0] = 1;
     }
     else
     {
         // Get connectivity of the cell and its sibling cell
         std::vector< EntityHandle > conn, sib_conn;
         error = get_connectivity( cell, cur_level, conn );MB_CHK_ERR( error );
  
         error = get_connectivity( sib_cell, cur_level, sib_conn );MB_CHK_ERR( error );
  
         // Get the connectivity of the local face in the cell and its sibling
         std::vector< EntityHandle > lface( nvF );
         std::vector< EntityHandle > lface_sib( nvF );
         for( int i = 0; i < nvF; i++ )
         {
             int id   = ahf->lConnMap3D[idx].hf2v[lfid][i];
             lface[i] = conn[id];
  
             id           = ahf->lConnMap3D[idx].hf2v[sib_lfid][i];
             lface_sib[i] = sib_conn[id];
         }
  
         // Find the combination
         int c = 0;
         for( int i = 0; i < nco; i++ )
         {
             int count = 0;
             for( int j = 0; j < nvF; j++ )
             {
                 int id = permutation[nvF - 3].comb[i][j];
                 if( lface[j] == lface_sib[id] ) count += 1;
             }
  
             if( count == nvF )
             {
                 c = i;
                 break;
             }
         }
  
         if( c > nco ) MB_SET_ERR( MB_FAILURE, "Getting a combination number more than currently supported" );
  
         // Get the ordered indices
         if( ( ( !index ) && ( nvF == 4 ) && ( deg == 3 ) ) || ( deg == 2 ) )
         {
             for( int i = 0; i < 4; i++ )
                 id_sib[i] = permutation[nvF - 3].porder2[c][i];
         }
         else
         {
             for( int i = 0; i < 9; i++ )
                 id_sib[i] = permutation[nvF - 3].porder3[c][i];
         }
     }
  
     return MB_SUCCESS;
 }

References _incells, ahf, moab::Range::begin(), moab::NestedRefine::pmat::comb, moab::error(), ErrorCode, get_connectivity(), moab::HalfFacetRep::get_index_in_lmap(), moab::HalfFacetRep::LocalMaps3D::hf2v, moab::HalfFacetRep::LocalMaps3D::hf2v_num, moab::HalfFacetRep::lConnMap3D, MB_CHK_ERR, MB_SET_ERR, MB_SUCCESS, moab::NestedRefine::pmat::num_comb, and permutation.

Referenced by construct_hm_2D(), update_global_ahf_3D(), and update_tracking_verts().

◆ reorder_indices() [3/4]

ErrorCode moab::NestedRefine::reorder_indices	(	int	deg,
		EntityHandle *	face1_conn,
		EntityHandle *	face2_conn,
		int	nvF,
		std::vector< int > &	lemap,
		std::vector< int > &	vidx,
		int *	leorient = `NULL`
	)

protected

Definition at line 4402 of file NestedRefine.cpp.

 {
     // Given the connectivities of two faces, get the permuted indices w.r.t first face.
     // Step 1: First find the orientation
     int nco = permutation[nvF - 3].num_comb;
     int c   = 0;
     for( int i = 0; i < nco; i++ )
     {
         int count = 0;
         for( int j = 0; j < nvF; j++ )
         {
             int id = permutation[nvF - 3].comb[i][j];
             if( face1_conn[j] == face2_conn[id] ) count += 1;
         }
  
         if( count == nvF )
         {
             c = i;
             break;
         }
     }
  
     if( c > nco ) MB_SET_ERR( MB_FAILURE, "Getting a combination number more than currently supported" );
  
     // Add the corresponding local edges
     lemap.reserve( nvF );
     for( int i = 0; i < nvF; i++ )
     {
         lemap.push_back( permutation[nvF - 3].lemap[c][i] );
     }
     if( leorient ) leorient[0] = permutation[nvF - 3].orient[c];
  
     if( nvF == 3 && deg == 2 ) return MB_SUCCESS;
  
     if( ( nvF == 3 && deg == 3 ) || ( nvF == 4 && deg == 2 ) )
     {
         vidx.push_back( 1 );
     }
     else if( nvF == 4 && deg == 3 )
     {
         for( int i = 0; i < 4; i++ )
             vidx.push_back( permutation[nvF - 3].porder2[c][i] );
     }
  
     return MB_SUCCESS;
 }

References moab::NestedRefine::pmat::comb, MB_SET_ERR, MB_SUCCESS, moab::NestedRefine::pmat::num_comb, moab::NestedRefine::pmat::orient, permutation, and moab::NestedRefine::pmat::porder2.

◆ reorder_indices() [4/4]

ErrorCode moab::NestedRefine::reorder_indices	(	int	deg,
		int	nvF,
		int	comb,
		int *	childfid_map
	)

protected

Definition at line 4455 of file NestedRefine.cpp.

 {
     // Given connectivities of two faces and a degree, get the permuted indices of the children
     // faces w.r.t first face.
  
     assert( deg == 2 || deg == 3 );
  
     // Get the ordered indices
     if( deg == 2 )
     {
         for( int i = 0; i < 4; i++ )
             childfid_map[i] = permutation[nvF - 3].porder2[comb][i];
     }
     else
     {
         for( int i = 0; i < 9; i++ )
             childfid_map[i] = permutation[nvF - 3].porder3[comb][i];
     }
  
     return MB_SUCCESS;
 }

References MB_SUCCESS, and permutation.

◆ subdivide_cells()

ErrorCode moab::NestedRefine::subdivide_cells	(	EntityType	type,
		int	cur_level,
		int	deg
	)

protected

Definition at line 1421 of file NestedRefine.cpp.

 {
     ErrorCode error;
     int nverts_prev, nents_prev;
     if( cur_level )
     {
         nverts_prev = level_mesh[cur_level - 1].num_verts;
         nents_prev  = level_mesh[cur_level - 1].num_cells;
     }
     else
     {
         nverts_prev = _inverts.size();
         nents_prev  = _incells.size();
     }
  
     // Create some book-keeping arrays over the parent mesh to avoid introducing duplicate vertices
     int cindex  = type - 1;
     int d       = get_index_from_degree( deg );
     int ne      = refTemplates[cindex][d].nv_edge;
     int nvf     = refTemplates[cindex][d].nv_face;
     int nvtotal = refTemplates[cindex][d].total_new_verts;
  
     int index = ahf->get_index_in_lmap( *( _incells.begin() ) );
     int nvpc  = ahf->lConnMap3D[index].num_verts_in_cell;
     int nepc  = ahf->lConnMap3D[index].num_edges_in_cell;
     int nfpc  = ahf->lConnMap3D[index].num_faces_in_cell;
  
     int vtotal = nvpc + nvtotal;
     std::vector< EntityHandle > vbuffer( vtotal );
  
     std::vector< EntityHandle > trackvertsC_edg( nepc * ne * nents_prev, 0 );
     std::vector< EntityHandle > trackvertsC_face( nfpc * nvf * nents_prev, 0 );
  
     int cur_nverts = level_mesh[cur_level].num_verts;
     std::vector< int > flag_verts( cur_nverts - nverts_prev, 0 );
  
     int count_nverts = nverts_prev;
     int count_ents   = 0;
     std::vector< EntityHandle > conn, cur_conn;
  
     // Step 1: Create the subentities via refinement of the previous mesh
     for( int cid = 0; cid < nents_prev; cid++ )
     {
         conn.clear();
         cur_conn.clear();
         for( int i = 0; i < vtotal; i++ )
             vbuffer[i] = 0;
  
         // EntityHandle of the working cell
         EntityHandle cell;
         if( cur_level )
             cell = level_mesh[cur_level - 1].start_cell + cid;
         else
             cell = _incells[cid];
  
         error = get_connectivity( cell, cur_level, conn );MB_CHK_ERR( error );
  
         // Step 1: Add vertices from the current level for the working face that will be used for
         // subdivision.
         // Add the corners to vbuffer
         for( int i = 0; i < (int)conn.size(); i++ )
         {
             if( cur_level )
                 vbuffer[i] = level_mesh[cur_level].start_vertex + ( conn[i] - level_mesh[cur_level - 1].start_vertex );
             else
                 vbuffer[i] = level_mesh[cur_level].start_vertex + ( conn[i] - *_inverts.begin() );
  
             cur_conn.push_back( vbuffer[i] );
         }
  
         // Gather vertices already added to tracking array due to refinement of the sibling cells
         for( int i = 0; i < nepc; i++ )
         {
             for( int j = 0; j < ne; j++ )
             {
                 int idx      = refTemplates[cindex][d].vert_on_edges[i][j];
                 vbuffer[idx] = trackvertsC_edg[cid * nepc * ne + ne * i + j];
             }
         }
  
         // Add remaining new vertex handles
         for( int i = 0; i < nfpc; i++ )
         {
             for( int j = 0; j < nvf; j++ )
             {
                 int idx      = refTemplates[cindex][d].vert_on_faces[i][j];
                 vbuffer[idx] = trackvertsC_face[cid * nfpc * nvf + nvf * i + j];
             }
         }
  
         // Add the remaining vertex handles to vbuffer for the current level for the working cell
         for( int i = 0; i < nvtotal; i++ )
         {
             if( !vbuffer[i + nvpc] )
             {
                 vbuffer[i + nvpc] = level_mesh[cur_level].start_vertex + count_nverts;
                 count_nverts += 1;
             }
         }
  
         // Step 2: Use the template to obtain the subentities. The coordinates and local ahf maps
         // are also constructed. Connectivity of the children
         int etotal = refTemplates[type - 1][d].total_new_ents;
         std::vector< EntityHandle > ent_buffer( etotal );
  
         for( int i = 0; i < etotal; i++ )
         {
             for( int k = 0; k < nvpc; k++ )
             {
                 int idx                                                = refTemplates[type - 1][d].ents_conn[i][k];
                 level_mesh[cur_level].cell_conn[nvpc * count_ents + k] = vbuffer[idx];
             }
             ent_buffer[i] = level_mesh[cur_level].start_cell + count_ents;
             count_ents += 1;
         }
  
         // Step 3: Update local ahf maps
         error = update_local_ahf( deg, type, &vbuffer[0], &ent_buffer[0], etotal );MB_CHK_ERR( error );
  
         // Step 4: Update tracking information
         error = update_tracking_verts( cell, cur_level, deg, trackvertsC_edg, trackvertsC_face, &vbuffer[0] );MB_CHK_ERR( error );
  
         // Step 5: Coordinates of the new vertices
         std::vector< double > corner_coords( nvpc * 3 );
         error = get_coordinates( &cur_conn[0], nvpc, cur_level + 1, &corner_coords[0] );MB_CHK_ERR( error );
  
         error = compute_coordinates( cur_level, deg, type, &vbuffer[0], vtotal, &corner_coords[0], flag_verts,
                                      nverts_prev );MB_CHK_ERR( error );
     }
  
     // error = ahf->print_tags(3);
  
     // Step 6: Update the global maps
     error = update_global_ahf( type, cur_level, deg );MB_CHK_ERR( error );
  
     // Step 7: If edges exists, refine them as well.
     if( level_mesh[cur_level].num_edges != 0 )
     {
         error = construct_hm_1D( cur_level, deg, type, trackvertsC_edg );MB_CHK_ERR( error );
     }
  
     // Step 8: If faces exists, refine them as well.
     if( !_infaces.empty() )
     {
         error = construct_hm_2D( cur_level, deg, type, trackvertsC_edg, trackvertsC_face );MB_CHK_ERR( error );
     }
  
     // error = ahf->print_tags(3);
  
     return MB_SUCCESS;
 }

Referenced by construct_hm_3D().

◆ subdivide_tets()

ErrorCode moab::NestedRefine::subdivide_tets	(	int	cur_level,
		int	deg
	)

protected

Definition at line 1573 of file NestedRefine.cpp.

 {
     ErrorCode error;
     int nverts_prev, nents_prev;
     if( cur_level )
     {
         nverts_prev = level_mesh[cur_level - 1].num_verts;
         nents_prev  = level_mesh[cur_level - 1].num_cells;
     }
     else
     {
         nverts_prev = _inverts.size();
         nents_prev  = _incells.size();
     }
  
     EntityType type = MBTET;
     int cindex      = type - 1;
     int d           = get_index_from_degree( deg );
     int ne          = refTemplates[cindex][d].nv_edge;
     int nvf         = refTemplates[cindex][d].nv_face;
     int nvtotal     = refTemplates[cindex][d].total_new_verts;
  
     int index = ahf->get_index_in_lmap( *( _incells.begin() ) );
     int nvpc  = ahf->lConnMap3D[index].num_verts_in_cell;
     int nepc  = ahf->lConnMap3D[index].num_edges_in_cell;
     int nfpc  = ahf->lConnMap3D[index].num_faces_in_cell;
  
     // Create vertex buffer
     int vtotal = nvpc + nvtotal;
     std::vector< EntityHandle > vbuffer( vtotal );
  
     // Create book-keeping arrays over the parent mesh to avoid introducing duplicate vertices
     std::vector< EntityHandle > trackvertsC_edg( nepc * ne * nents_prev, 0 );
     std::vector< EntityHandle > trackvertsC_face( nfpc * nvf * nents_prev, 0 );
  
     int cur_nverts = level_mesh[cur_level].num_verts;
     std::vector< int > flag_verts( cur_nverts - nverts_prev, 0 );
     std::vector< int > cell_patterns( nents_prev, 0 );
  
     int count_nverts = nverts_prev;
     int count_ents   = 0;
     std::vector< EntityHandle > conn, cur_conn;
  
     // Step 1: Create the subentities via refinement of the previous mesh
     for( int cid = 0; cid < nents_prev; cid++ )
     {
         conn.clear();
         cur_conn.clear();
         for( int i = 0; i < vtotal; i++ )
             vbuffer[i] = 0;
  
         // EntityHandle of the working cell
         EntityHandle cell;
         if( cur_level )
             cell = level_mesh[cur_level - 1].start_cell + cid;
         else
             cell = _incells[cid];
  
         error = get_connectivity( cell, cur_level, conn );MB_CHK_ERR( error );
  
         // Step 1: Add vertices from the current level for the working face that will be used for
         // subdivision.
         // Add the corners to vbuffer
         for( int i = 0; i < (int)conn.size(); i++ )
         {
             if( cur_level )
                 vbuffer[i] = level_mesh[cur_level].start_vertex + ( conn[i] - level_mesh[cur_level - 1].start_vertex );
             else
                 vbuffer[i] = level_mesh[cur_level].start_vertex + ( conn[i] - *_inverts.begin() );
  
             cur_conn.push_back( vbuffer[i] );
         }
  
         // Gather vertices already added to tracking array due to refinement of the sibling cells
         for( int i = 0; i < nepc; i++ )
         {
             for( int j = 0; j < ne; j++ )
             {
                 int idx      = refTemplates[cindex][d].vert_on_edges[i][j];
                 vbuffer[idx] = trackvertsC_edg[cid * nepc * ne + ne * i + j];
             }
         }
  
         // Add remaining new vertex handles
         for( int i = 0; i < nfpc; i++ )
         {
             for( int j = 0; j < nvf; j++ )
             {
                 int idx      = refTemplates[cindex][d].vert_on_faces[i][j];
                 vbuffer[idx] = trackvertsC_face[cid * nfpc * nvf + nvf * i + j];
             }
         }
  
         // Add the remaining vertex handles to vbuffer for the current level for the working cell
         for( int i = 0; i < nvtotal; i++ )
         {
             if( !vbuffer[i + nvpc] )
             {
                 vbuffer[i + nvpc] = level_mesh[cur_level].start_vertex + count_nverts;
                 count_nverts += 1;
             }
         }
  
         // Step 2: Coordinates of the new vertices
         std::vector< double > corner_coords( nvpc * 3 );
         error = get_coordinates( &cur_conn[0], nvpc, cur_level + 1, &corner_coords[0] );MB_CHK_ERR( error );
  
         error = compute_coordinates( cur_level, deg, type, &vbuffer[0], vtotal, &corner_coords[0], flag_verts,
                                      nverts_prev );MB_CHK_ERR( error );
  
         // Step 3: Choose the tet refine pattern to be used for this tet
         int diag           = find_shortest_diagonal_octahedron( cur_level, deg, &vbuffer[0] );
         int pat_id         = diag + 2;
         cell_patterns[cid] = pat_id;
  
         // Step 4: Use the template to obtain the subentities. The coordinates and local ahf maps
         // are also constructed. Connectivity of the children
         int etotal = refTemplates[pat_id][d].total_new_ents;
         std::vector< EntityHandle > ent_buffer( etotal );
  
         for( int i = 0; i < etotal; i++ )
         {
             for( int k = 0; k < nvpc; k++ )
             {
                 int idx                                                = refTemplates[pat_id][d].ents_conn[i][k];
                 level_mesh[cur_level].cell_conn[nvpc * count_ents + k] = vbuffer[idx];
             }
             ent_buffer[i] = level_mesh[cur_level].start_cell + count_ents;
             count_ents += 1;
         }
  
         // Step 5: Update local ahf maps
         error = update_local_ahf( deg, MBTET, pat_id, &vbuffer[0], &ent_buffer[0], etotal );MB_CHK_ERR( error );
  
         // Step 6: Update tracking information
         error = update_tracking_verts( cell, cur_level, deg, trackvertsC_edg, trackvertsC_face, &vbuffer[0] );MB_CHK_ERR( error );
     }
  
     // Step 7: Update the global maps
     //  error = update_global_ahf(cur_level, deg, cell_patterns); MB_CHK_ERR(error);
     error = update_global_ahf( type, cur_level, deg, &cell_patterns );MB_CHK_ERR( error );
  
     // Step 8: If edges exists, refine them as well.
     if( level_mesh[cur_level].num_edges != 0 )
     {
         error = construct_hm_1D( cur_level, deg, type, trackvertsC_edg );MB_CHK_ERR( error );
     }
  
     // Step 9: If faces exists, refine them as well.
     if( !_infaces.empty() )
     {
         error = construct_hm_2D( cur_level, deg, type, trackvertsC_edg, trackvertsC_face );MB_CHK_ERR( error );
     }
  
     return MB_SUCCESS;
 }

Referenced by construct_hm_3D().

◆ update_ahf_1D()

ErrorCode moab::NestedRefine::update_ahf_1D ( int cur_level )

protected

Definition at line 3398 of file NestedRefine.cpp.

 {
     ErrorCode error;
     error = ahf->determine_sibling_halfverts( level_mesh[cur_level].verts, level_mesh[cur_level].edges );MB_CHK_ERR( error );
  
     error = ahf->determine_incident_halfverts( level_mesh[cur_level].edges );MB_CHK_ERR( error );
  
     return MB_SUCCESS;
 }

References ahf, moab::HalfFacetRep::determine_incident_halfverts(), moab::HalfFacetRep::determine_sibling_halfverts(), moab::error(), ErrorCode, level_mesh, MB_CHK_ERR, and MB_SUCCESS.

Referenced by construct_hm_2D().

◆ update_global_ahf()

ErrorCode moab::NestedRefine::update_global_ahf	(	EntityType	type,
		int	cur_level,
		int	deg,
		std::vector< int > *	pattern_ids = `NULL`
	)

protected

Definition at line 3113 of file NestedRefine.cpp.

 {
  
     ErrorCode error;
  
     // Get the number of half-facets and number of children of each type
     if( type == MBEDGE )
     {
         assert( pattern_ids == NULL );
         error = update_global_ahf_1D( cur_level, deg );MB_CHK_ERR( error );
     }
     else if( type == MBTRI || type == MBQUAD )
     {
         assert( pattern_ids == NULL );
         error = update_global_ahf_2D( cur_level, deg );MB_CHK_ERR( error );
     }
     else if( type == MBHEX )
     {
         assert( pattern_ids == NULL );
         error = update_global_ahf_3D( cur_level, deg );MB_CHK_ERR( error );
     }
     else if( type == MBTET )
     {
         assert( pattern_ids != NULL );
         error = update_global_ahf_3D( cur_level, deg, pattern_ids );MB_CHK_ERR( error );
     }
     else
         MB_SET_ERR( MB_NOT_IMPLEMENTED, "Requesting AHF update for an unsupported mesh entity type" );
  
     return MB_SUCCESS;
 }

References moab::error(), ErrorCode, MB_CHK_ERR, MB_NOT_IMPLEMENTED, MB_SET_ERR, MB_SUCCESS, MBEDGE, MBHEX, MBQUAD, MBTET, MBTRI, update_global_ahf_1D(), update_global_ahf_2D(), and update_global_ahf_3D().

Referenced by construct_hm_1D(), construct_hm_2D(), subdivide_cells(), and subdivide_tets().

◆ update_global_ahf_1D()

ErrorCode moab::NestedRefine::update_global_ahf_1D	(	int	cur_level,
		int	deg
	)

protected

Definition at line 3153 of file NestedRefine.cpp.

 {
     ErrorCode error;
     int d = get_index_from_degree( deg );
     int nhf, nchilds, nverts_prev, nents_prev;
     nhf     = 2;
     nchilds = refTemplates[0][d].total_new_ents;
     if( cur_level )
     {
         nverts_prev = level_mesh[cur_level - 1].num_verts;
         nents_prev  = level_mesh[cur_level - 1].num_edges;
     }
     else
     {
         nverts_prev = _inverts.size();
         nents_prev  = _inedges.size();
     }
  
     std::vector< EntityHandle > inci_ent, child_ents;
     std::vector< int > inci_lid, child_lids;
  
     // Update the vertex to half-facet maps for duplicate vertices
     for( int i = 0; i < nverts_prev; i++ )
     {
         inci_ent.clear();
         inci_lid.clear();
         child_ents.clear();
         child_lids.clear();
  
         // Vertex id in the previous mesh and the current one
         EntityHandle vid;
         if( cur_level )
             vid = level_mesh[cur_level - 1].start_vertex + i;
         else
             vid = _inverts[i];
         EntityHandle cur_vid = level_mesh[cur_level].start_vertex + i;
  
         // Get the incident half-vert in the previous mesh
         error = ahf->get_incident_map( MBEDGE, vid, inci_ent, inci_lid );MB_CHK_ERR( error );
  
         // Obtain the corresponding incident child in the current mesh
         int lvid = get_local_vid( vid, inci_ent[0], cur_level - 1 );
         if( lvid < 0 ) MB_SET_ERR( MB_FAILURE, "did not find local vertex ix " );
         int chid = refTemplates[0][d].v2hf[lvid][0] - 1;
  
         int pid;
         if( cur_level )
             pid = inci_ent[0] - level_mesh[cur_level - 1].start_edge;
         else
             pid = inci_ent[0] - *_inedges.begin();
  
         int ind = nchilds * pid;
  
         child_ents.push_back( level_mesh[cur_level].start_edge + ind + chid );
         child_lids.push_back( refTemplates[0][d].v2hf[lvid][1] );
  
         error = ahf->set_incident_map( MBEDGE, cur_vid, child_ents, child_lids );MB_CHK_ERR( error );
     }
  
     // Update the sibling half-facet maps across entities
     for( int i = 0; i < nents_prev; i++ )
     {
         EntityHandle ent;
         if( cur_level )
             ent = level_mesh[cur_level - 1].start_edge + i;
         else
             ent = _inedges[i];
  
         std::vector< EntityHandle > sib_entids( nhf );
         std::vector< int > sib_lids( nhf );
  
         error = ahf->get_sibling_map( MBEDGE, ent, &sib_entids[0], &sib_lids[0], nhf );MB_CHK_ERR( error );
  
         int id, idx;
  
         for( int l = 0; l < nhf; l++ )
         {
             if( !sib_entids[l] ) continue;
  
             // Find the child incident on the half-facet
             id                     = refTemplates[0][d].ents_on_pent[l][1] - 1;
             idx                    = nchilds * i;
             EntityHandle child_ent = level_mesh[cur_level].start_edge + idx + id;
             int ch_lid             = l;
  
             // Find the sibling of the child
             std::vector< EntityHandle > sib_childs( nhf );
             std::vector< int > sib_chlids( nhf );
  
             error = ahf->get_sibling_map( MBEDGE, child_ent, &sib_childs[0], &sib_chlids[0], nhf );MB_CHK_ERR( error );
  
             // If the sibling already exists, dont do anything
             if( sib_childs[ch_lid] ) continue;
  
             // Get the correponding child of the sibling of the current parent
             int psib;
             if( cur_level )
                 psib = sib_entids[l] - level_mesh[cur_level - 1].start_edge;
             else
                 psib = sib_entids[l] - *_inedges.begin();
  
             int plid = sib_lids[l];
  
             id  = refTemplates[0][d].ents_on_pent[plid][1] - 1;
             idx = nchilds * psib;
  
             EntityHandle psib_child = level_mesh[cur_level].start_edge + idx + id;
             int psib_chlid          = plid;
  
             // Set the siblings
             sib_childs[ch_lid] = psib_child;
             sib_chlids[ch_lid] = psib_chlid;
  
             error = ahf->set_sibling_map( MBEDGE, child_ent, &sib_childs[0], &sib_chlids[0], nhf );MB_CHK_ERR( error );
         }
     }
  
     return MB_SUCCESS;
 }

References _inedges, _inverts, ahf, moab::Range::begin(), moab::NestedRefine::refPatterns::ents_on_pent, moab::error(), ErrorCode, moab::HalfFacetRep::get_incident_map(), get_index_from_degree(), get_local_vid(), moab::HalfFacetRep::get_sibling_map(), level_mesh, MB_CHK_ERR, MB_SET_ERR, MB_SUCCESS, MBEDGE, moab::NestedRefine::level_memory::num_edges, moab::NestedRefine::level_memory::num_verts, refTemplates, moab::HalfFacetRep::set_incident_map(), moab::HalfFacetRep::set_sibling_map(), moab::Range::size(), moab::NestedRefine::level_memory::start_edge, moab::NestedRefine::level_memory::start_vertex, moab::NestedRefine::refPatterns::total_new_ents, and moab::NestedRefine::refPatterns::v2hf.

Referenced by update_global_ahf().

◆ update_global_ahf_1D_sub()

ErrorCode moab::NestedRefine::update_global_ahf_1D_sub	(	int	cur_level,
		int	deg
	)

protected

Definition at line 3273 of file NestedRefine.cpp.

 {
     ErrorCode error;
     int d = get_index_from_degree( deg );
     int nhf, nchilds, nents_prev;
     nhf     = 2;
     nchilds = refTemplates[0][d].total_new_ents;
     if( cur_level )
     {
         nents_prev = level_mesh[cur_level - 1].num_edges;
     }
     else
     {
         nents_prev = _inedges.size();
     }
  
     // Update the sibling half-facet maps across entities
  
     std::vector< EntityHandle > conn;
     for( int i = 0; i < nents_prev; i++ )
     {
         EntityHandle ent;
         if( cur_level )
             ent = level_mesh[cur_level - 1].start_edge + i;
         else
             ent = _inedges[i];
  
         // Set incident hv maps
         conn.clear();
         error = get_connectivity( ent, cur_level, conn );MB_CHK_ERR( error );
  
         std::vector< EntityHandle > inci_ent, child_ents;
         std::vector< int > inci_lid, child_lids;
         for( int j = 0; j < 2; j++ )
         {
             inci_ent.clear();
             inci_lid.clear();
             child_ents.clear();
             child_lids.clear();
  
             // Get the entityhandle of the vertex from previous level in the current level
             EntityHandle cur_vid;
             if( cur_level )
                 cur_vid = level_mesh[cur_level].start_vertex + ( conn[j] - level_mesh[cur_level - 1].start_vertex );
             else
                 cur_vid = level_mesh[cur_level].start_vertex + ( conn[j] - *_inverts.begin() );
  
             // Obtain the incident half-facet. If exists, then no need to assign another
             error = ahf->get_incident_map( MBEDGE, cur_vid, inci_ent, inci_lid );MB_CHK_ERR( error );
             if( inci_ent[0] != 0 ) continue;
  
             // Get the incident half-facet on the old vertex
             error = ahf->get_incident_map( MBEDGE, conn[j], inci_ent, inci_lid );MB_CHK_ERR( error );
  
             // Obtain the corresponding incident child in the current mesh
             int lvid = get_local_vid( conn[j], inci_ent[0], cur_level - 1 );
             if( lvid < 0 ) MB_SET_ERR( MB_FAILURE, "did not find local vertex ix " );
             int chid = refTemplates[0][d].v2hf[lvid][0] - 1;
  
             int pid;
             if( cur_level )
                 pid = inci_ent[0] - level_mesh[cur_level - 1].start_edge;
             else
                 pid = inci_ent[0] - *_inedges.begin();
  
             int ind = nchilds * pid;
  
             child_ents.push_back( level_mesh[cur_level].start_edge + ind + chid );
             child_lids.push_back( refTemplates[0][d].v2hf[lvid][1] );
  
             error = ahf->set_incident_map( MBEDGE, cur_vid, child_ents, child_lids );MB_CHK_ERR( error );
         }
  
         std::vector< EntityHandle > sib_entids( nhf );
         std::vector< int > sib_lids( nhf );
  
         error = ahf->get_sibling_map( MBEDGE, ent, &sib_entids[0], &sib_lids[0], nhf );MB_CHK_ERR( error );
  
         int id, idx;
  
         for( int l = 0; l < nhf; l++ )
         {
             if( !sib_entids[l] ) continue;
  
             // Find the child incident on the half-facet
             id                     = refTemplates[0][d].ents_on_pent[l][1] - 1;
             idx                    = nchilds * i;
             EntityHandle child_ent = level_mesh[cur_level].start_edge + idx + id;
             int ch_lid             = l;
  
             // Find the sibling of the child
             std::vector< EntityHandle > sib_childs( nhf );
             std::vector< int > sib_chlids( nhf );
  
             error = ahf->get_sibling_map( MBEDGE, child_ent, &sib_childs[0], &sib_chlids[0], nhf );MB_CHK_ERR( error );
  
             // If the sibling already exists, dont do anything
             if( sib_childs[ch_lid] ) continue;
  
             // Get the correponding child of the sibling of the current parent
             int psib;
             if( cur_level )
                 psib = sib_entids[l] - level_mesh[cur_level - 1].start_edge;
             else
                 psib = sib_entids[l] - *_inedges.begin();
  
             int plid = sib_lids[l];
  
             id  = refTemplates[0][d].ents_on_pent[plid][1] - 1;
             idx = nchilds * psib;
  
             EntityHandle psib_child = level_mesh[cur_level].start_edge + idx + id;
             int psib_chlid          = plid;
  
             // Set the siblings
             sib_childs[ch_lid] = psib_child;
             sib_chlids[ch_lid] = psib_chlid;
  
             error = ahf->set_sibling_map( MBEDGE, child_ent, &sib_childs[0], &sib_chlids[0], nhf );MB_CHK_ERR( error );
         }
     }
  
     return MB_SUCCESS;
 }

References _inedges, _inverts, ahf, moab::Range::begin(), moab::Range::clear(), moab::NestedRefine::refPatterns::ents_on_pent, moab::error(), ErrorCode, get_connectivity(), moab::HalfFacetRep::get_incident_map(), get_index_from_degree(), get_local_vid(), moab::HalfFacetRep::get_sibling_map(), level_mesh, MB_CHK_ERR, MB_SET_ERR, MB_SUCCESS, MBEDGE, moab::NestedRefine::level_memory::num_edges, refTemplates, moab::HalfFacetRep::set_incident_map(), moab::HalfFacetRep::set_sibling_map(), moab::Range::size(), moab::NestedRefine::level_memory::start_edge, moab::NestedRefine::level_memory::start_vertex, moab::NestedRefine::refPatterns::total_new_ents, and moab::NestedRefine::refPatterns::v2hf.

Referenced by construct_hm_1D().

◆ update_global_ahf_2D()

ErrorCode moab::NestedRefine::update_global_ahf_2D	(	int	cur_level,
		int	deg
	)

protected

Definition at line 3408 of file NestedRefine.cpp.

 {
     ErrorCode error;
  
     EntityType type = mbImpl->type_from_handle( *_infaces.begin() );
     int nhf, nchilds, nverts_prev, nents_prev;
  
     nhf     = ahf->lConnMap2D[type - 2].num_verts_in_face;
     int d   = get_index_from_degree( deg );
     nchilds = refTemplates[type - 1][d].total_new_ents;
  
     if( cur_level )
     {
         nverts_prev = level_mesh[cur_level - 1].num_verts;
         nents_prev  = level_mesh[cur_level - 1].num_faces;
     }
     else
     {
         nverts_prev = _inverts.size();
         nents_prev  = _infaces.size();
     }
  
     std::vector< EntityHandle > inci_ent, child_ents;
     std::vector< int > inci_lid, child_lids;
  
     // Update the vertex to half-edge maps for old/duplicate vertices
     for( int i = 0; i < nverts_prev; i++ )
     {
         inci_ent.clear();
         inci_lid.clear();
         child_ents.clear();
         child_lids.clear();
  
         // Vertex id in the previous mesh
         EntityHandle vid;
         if( cur_level )
             vid = level_mesh[cur_level - 1].start_vertex + i;
         else
             vid = _inverts[i];
         EntityHandle cur_vid = level_mesh[cur_level].start_vertex + i;
  
         // Get the incident half-vert in the previous mesh
         error = ahf->get_incident_map( type, vid, inci_ent, inci_lid );MB_CHK_ERR( error );
  
         // Obtain the corresponding incident child in the current mesh
         for( int j = 0; j < (int)inci_ent.size(); j++ )
         {
             int lvid = get_local_vid( vid, inci_ent[j], cur_level - 1 );
             if( lvid < 0 ) MB_SET_ERR( MB_FAILURE, "did not find local vertex ix " );
             int chid = refTemplates[type - 1][d].v2hf[lvid][0] - 1;
  
             int pid;
             if( cur_level )
                 pid = inci_ent[j] - level_mesh[cur_level - 1].start_face;
             else
                 pid = inci_ent[j] - *_infaces.begin();
  
             int ind = nchilds * pid;
  
             child_ents.push_back( level_mesh[cur_level].start_face + ind + chid );
             child_lids.push_back( refTemplates[type - 1][d].v2hf[lvid][1] );
         }
         error = ahf->set_incident_map( type, cur_vid, child_ents, child_lids );MB_CHK_ERR( error );
     }
  
     EntityHandle fedge[2];
  
     // Update the sibling half-facet maps across entities
     for( int i = 0; i < nents_prev; i++ )
     {
         EntityHandle ent;
         if( cur_level )
             ent = level_mesh[cur_level - 1].start_face + i;
         else
             ent = _infaces[i];
  
         std::vector< EntityHandle > fid_conn;
         error = get_connectivity( ent, cur_level, fid_conn );
         if( MB_SUCCESS != error ) return error;
  
         std::vector< EntityHandle > sib_entids( nhf );
         std::vector< int > sib_lids( nhf );
  
         error = ahf->get_sibling_map( type, ent, &sib_entids[0], &sib_lids[0], nhf );MB_CHK_ERR( error );
  
         int id, idx;
  
         for( int l = 0; l < nhf; l++ )
         {
             if( !sib_entids[l] ) continue;
  
             int nidx = ahf->lConnMap2D[type - 2].next[l];
             fedge[0] = fid_conn[l];
             fedge[1] = fid_conn[nidx];
  
             EntityHandle sfid = sib_entids[l];
             int slid          = sib_lids[l];
  
             std::vector< EntityHandle > conn;
             error = get_connectivity( sfid, cur_level, conn );
             if( MB_SUCCESS != error ) return error;
  
             bool orient = true;
             nidx        = ahf->lConnMap2D[type - 2].next[slid];
             if( ( fedge[1] == conn[slid] ) && ( fedge[0] == conn[nidx] ) ) orient = false;
  
             if( orient ) assert( ( fedge[0] == conn[slid] ) && ( fedge[1] == conn[nidx] ) );
  
             // Find the childrens incident on the half-facet
             int nch = refTemplates[type - 1][d].ents_on_pent[l][0];
             idx     = nchilds * i;
  
             // Loop over all the incident childrens
             for( int k = 0; k < nch; k++ )
             {
                 id                     = refTemplates[type - 1][d].ents_on_pent[l][k + 1] - 1;
                 EntityHandle child_ent = level_mesh[cur_level].start_face + idx + id;
                 int child_lid          = l;
  
                 // Find the sibling of the child
                 EntityHandle child_sibent;
                 int child_siblid;
                 error = ahf->get_sibling_map( type, child_ent, child_lid, child_sibent, child_siblid );MB_CHK_ERR( error );
  
                 if( child_sibent != 0 ) continue;
  
                 // Get the correponding child of the sibling of the current parent
                 int psib;
                 if( cur_level )
                     psib = sfid - level_mesh[cur_level - 1].start_face;
                 else
                     psib = sfid - *_infaces.begin();
  
                 int plid = slid;
  
                 if( orient )
                     id = refTemplates[type - 1][d].ents_on_pent[plid][k + 1] - 1;
                 else
                     id = refTemplates[type - 1][d].ents_on_pent[plid][nch - k] - 1;
  
                 int sidx = nchilds * psib;
  
                 EntityHandle psib_child = level_mesh[cur_level].start_face + sidx + id;
                 int psib_chlid          = plid;
  
                 // Set the siblings
                 error = ahf->set_sibling_map( type, child_ent, child_lid, psib_child, psib_chlid );MB_CHK_ERR( error );
             }
         }
     }
  
     return MB_SUCCESS;
 }

References _infaces, _inverts, ahf, moab::Range::begin(), moab::NestedRefine::refPatterns::ents_on_pent, moab::error(), ErrorCode, get_connectivity(), moab::HalfFacetRep::get_incident_map(), get_index_from_degree(), get_local_vid(), moab::HalfFacetRep::get_sibling_map(), moab::HalfFacetRep::lConnMap2D, level_mesh, MB_CHK_ERR, MB_SET_ERR, MB_SUCCESS, mbImpl, moab::HalfFacetRep::LocalMaps2D::next, moab::NestedRefine::level_memory::num_faces, moab::NestedRefine::level_memory::num_verts, moab::HalfFacetRep::LocalMaps2D::num_verts_in_face, refTemplates, moab::HalfFacetRep::set_incident_map(), moab::HalfFacetRep::set_sibling_map(), moab::Range::size(), moab::NestedRefine::level_memory::start_face, moab::NestedRefine::level_memory::start_vertex, moab::NestedRefine::refPatterns::total_new_ents, moab::Core::type_from_handle(), and moab::NestedRefine::refPatterns::v2hf.

Referenced by update_global_ahf().

◆ update_global_ahf_2D_sub()

ErrorCode moab::NestedRefine::update_global_ahf_2D_sub	(	int	cur_level,
		int	deg
	)

protected

Definition at line 3562 of file NestedRefine.cpp.

 {
     ErrorCode error;
     int d           = get_index_from_degree( deg );
     EntityType type = mbImpl->type_from_handle( *_infaces.begin() );
     int nhf, nchilds, nents_prev;
     nhf     = ahf->lConnMap2D[type - 2].num_verts_in_face;
     nchilds = refTemplates[type - 1][d].total_new_ents;
  
     if( cur_level )
         nents_prev = level_mesh[cur_level - 1].num_faces;
     else
         nents_prev = _infaces.size();
  
     EntityHandle fedge[2];
  
     // Update the sibling half-facet maps across entities
     for( int i = 0; i < nents_prev; i++ )
     {
         EntityHandle ent;
         if( cur_level )
             ent = level_mesh[cur_level - 1].start_face + i;
         else
             ent = _infaces[i];
  
         std::vector< EntityHandle > fid_conn;
         error = get_connectivity( ent, cur_level, fid_conn );
         if( MB_SUCCESS != error ) return error;
  
         std::vector< EntityHandle > inci_ent, child_ents;
         std::vector< int > inci_lid, child_lids;
  
         // Set incident half-edges
         for( int j = 0; j < nhf; j++ )
         {
             inci_ent.clear();
             inci_lid.clear();
             child_ents.clear();
             child_lids.clear();
             EntityHandle cur_vid;
             if( cur_level )
                 cur_vid = level_mesh[cur_level].start_vertex + ( fid_conn[j] - level_mesh[cur_level - 1].start_vertex );
             else
                 cur_vid = level_mesh[cur_level].start_vertex + ( fid_conn[j] - *_inverts.begin() );
  
             // Obtain the incident half-facet. If exists, then no need to assign another
             error = ahf->get_incident_map( type, cur_vid, inci_ent, inci_lid );MB_CHK_ERR( error );
             if( inci_ent[0] != 0 ) continue;
  
             // Get the incident half-facet on the old vertex
             error = ahf->get_incident_map( type, fid_conn[j], inci_ent, inci_lid );MB_CHK_ERR( error );
  
             // Obtain the corresponding incident child in the current mesh
             for( int k = 0; k < (int)inci_ent.size(); k++ )
             {
                 int lvid = get_local_vid( fid_conn[j], inci_ent[k], cur_level - 1 );
                 if( lvid < 0 ) MB_SET_ERR( MB_FAILURE, "did not find local vertex ix " );
                 int chid = refTemplates[type - 1][d].v2hf[lvid][0] - 1;
  
                 int pid;
                 if( cur_level )
                     pid = inci_ent[k] - level_mesh[cur_level - 1].start_face;
                 else
                     pid = inci_ent[k] - *_infaces.begin();
  
                 int ind = nchilds * pid;
  
                 child_ents.push_back( level_mesh[cur_level].start_face + ind + chid );
                 child_lids.push_back( refTemplates[type - 1][d].v2hf[lvid][1] );
             }
  
             error = ahf->set_incident_map( type, cur_vid, child_ents, child_lids );MB_CHK_ERR( error );
         }
  
         // Set sibling half-edges
         std::vector< EntityHandle > sib_entids( nhf );
         std::vector< int > sib_lids( nhf );
  
         error = ahf->get_sibling_map( type, ent, &sib_entids[0], &sib_lids[0], nhf );MB_CHK_ERR( error );
  
         int id, idx;
  
         for( int l = 0; l < nhf; l++ )
         {
             if( !sib_entids[l] ) continue;
  
             int nidx = ahf->lConnMap2D[type - 2].next[l];
             fedge[0] = fid_conn[l];
             fedge[1] = fid_conn[nidx];
  
             EntityHandle sfid = sib_entids[l];
             int slid          = sib_lids[l];
  
             std::vector< EntityHandle > conn;
             error = get_connectivity( sfid, cur_level, conn );MB_CHK_ERR( error );
  
             assert( (int)conn.size() > nidx && (int)conn.size() > slid );
  
             bool orient = true;
             nidx        = ahf->lConnMap2D[type - 2].next[slid];
             if( ( fedge[1] == conn[slid] ) && ( fedge[0] == conn[nidx] ) ) orient = false;
  
             if( orient ) assert( ( fedge[0] == conn[slid] ) && ( fedge[1] == conn[nidx] ) );
  
             // Find the childrens incident on the half-facet
             int nch = refTemplates[type - 1][d].ents_on_pent[l][0];
             idx     = nchilds * i;
  
             // Loop over all the incident childrens
             for( int k = 0; k < nch; k++ )
             {
                 id                     = refTemplates[type - 1][d].ents_on_pent[l][k + 1] - 1;
                 EntityHandle child_ent = level_mesh[cur_level].start_face + idx + id;
                 int child_lid          = l;
  
                 // Find the sibling of the child
                 EntityHandle child_sibent;
                 int child_siblid;
                 error = ahf->get_sibling_map( type, child_ent, child_lid, child_sibent, child_siblid );MB_CHK_ERR( error );
  
                 if( child_sibent != 0 ) continue;
  
                 // Get the correponding child of the sibling of the current parent
                 int psib;
                 if( cur_level )
                     psib = sfid - level_mesh[cur_level - 1].start_face;
                 else
                     psib = sfid - *_infaces.begin();
  
                 int plid = slid;
  
                 if( orient )
                     id = refTemplates[type - 1][d].ents_on_pent[plid][k + 1] - 1;
                 else
                     id = refTemplates[type - 1][d].ents_on_pent[plid][nch - k] - 1;
  
                 int sidx = nchilds * psib;
  
                 EntityHandle psib_child = level_mesh[cur_level].start_face + sidx + id;
                 int psib_chlid          = plid;
  
                 // Set the siblings
                 error = ahf->set_sibling_map( type, child_ent, child_lid, psib_child, psib_chlid );MB_CHK_ERR( error );
             }
         }
     }
  
     return MB_SUCCESS;
 }

References _infaces, _inverts, ahf, moab::Range::begin(), moab::NestedRefine::refPatterns::ents_on_pent, moab::error(), ErrorCode, get_connectivity(), moab::HalfFacetRep::get_incident_map(), get_index_from_degree(), get_local_vid(), moab::HalfFacetRep::get_sibling_map(), moab::HalfFacetRep::lConnMap2D, level_mesh, MB_CHK_ERR, MB_SET_ERR, MB_SUCCESS, mbImpl, moab::HalfFacetRep::LocalMaps2D::next, moab::NestedRefine::level_memory::num_faces, moab::HalfFacetRep::LocalMaps2D::num_verts_in_face, refTemplates, moab::HalfFacetRep::set_incident_map(), moab::HalfFacetRep::set_sibling_map(), moab::Range::size(), moab::NestedRefine::level_memory::start_face, moab::NestedRefine::level_memory::start_vertex, moab::NestedRefine::refPatterns::total_new_ents, moab::Core::type_from_handle(), and moab::NestedRefine::refPatterns::v2hf.

Referenced by construct_hm_2D().

◆ update_global_ahf_3D()

ErrorCode moab::NestedRefine::update_global_ahf_3D	(	int	cur_level,
		int	deg,
		std::vector< int > *	pattern_ids = `NULL`
	)

protected

Definition at line 3712 of file NestedRefine.cpp.

 {
     ErrorCode error;
     int nvpc, ne, nhf, nchilds, nverts_prev, nents_prev;
  
     EntityType type = mbImpl->type_from_handle( *_incells.begin() );
     int index       = ahf->get_index_in_lmap( *_incells.begin() );
     int d           = get_index_from_degree( deg );
  
     nhf     = ahf->lConnMap3D[index].num_faces_in_cell;
     ne      = ahf->lConnMap3D[index].num_edges_in_cell;
     nvpc    = ahf->lConnMap3D[index].num_verts_in_cell;
     nchilds = refTemplates[type - 1][d].total_new_ents;
  
     if( cur_level )
     {
         nverts_prev = level_mesh[cur_level - 1].num_verts;
         nents_prev  = level_mesh[cur_level - 1].num_cells;
     }
     else
     {
         nverts_prev = _inverts.size();
         nents_prev  = _incells.size();
     }
  
     std::vector< EntityHandle > inci_ent, child_ents;
     std::vector< int > inci_lid, child_lids;
  
     // Step 1: Update the V2HF maps for old/duplicate vertices
     for( int i = 0; i < nverts_prev; i++ )
     {
         inci_ent.clear();
         inci_lid.clear();
         child_ents.clear();
         child_lids.clear();
  
         // Vertex id in the previous mesh
         EntityHandle vid;
         if( cur_level )
             vid = level_mesh[cur_level - 1].start_vertex + i;
         else
             vid = _inverts[i];
         EntityHandle cur_vid = level_mesh[cur_level].start_vertex + i;
  
         // Get the incident half-vert in the previous mesh
         error = ahf->get_incident_map( type, vid, inci_ent, inci_lid );MB_CHK_ERR( error );
  
         // Obtain the corresponding incident child in the current mesh
         for( int j = 0; j < (int)inci_ent.size(); j++ )
         {
             int lvid = get_local_vid( vid, inci_ent[j], cur_level - 1 );
             if( lvid < 0 ) MB_SET_ERR( MB_FAILURE, "did not find local vertex ix " );
             int chid = refTemplates[type - 1][d].v2hf[lvid][0] - 1;
  
             int pid;
             if( cur_level )
                 pid = inci_ent[j] - level_mesh[cur_level - 1].start_cell;
             else
                 pid = inci_ent[j] - *_incells.begin();
  
             int ind = nchilds * pid;
  
             //  EntityHandle child_ent = level_mesh[cur_level].start_cell + ind+chid ;
             // int child_lid = refTemplates[type-1][d].v2hf[lvid][1];
             child_ents.push_back( level_mesh[cur_level].start_cell + ind + chid );
             child_lids.push_back( refTemplates[type - 1][d].v2hf[lvid][1] );
         }
  
         error = ahf->set_incident_map( type, cur_vid, child_ents, child_lids );MB_CHK_ERR( error );
     }
  
     //  error = ahf->determine_incident_halffaces( level_mesh[cur_level].cells);MB_CHK_ERR(error);
  
     // Step 2: Update SIBHFS maps
     for( int i = 0; i < nents_prev; i++ )
     {
         EntityHandle ent;
         if( cur_level )
             ent = level_mesh[cur_level - 1].start_cell + i;
         else
             ent = _incells[i];
  
         std::vector< EntityHandle > sib_entids( nhf );
         std::vector< int > sib_lids( nhf );
  
         error = ahf->get_sibling_map( type, ent, &sib_entids[0], &sib_lids[0], nhf );MB_CHK_ERR( error );
  
         int id, idx;
  
         for( int l = 0; l < nhf; l++ )
         {
  
             if( !sib_entids[l] ) continue;
  
             // Get the number of children incident on this half-face
             int pat_id;
             if( type == MBTET )
                 pat_id = ( *pattern_ids )[i];
             else
                 pat_id = type - 1;
             int nch = refTemplates[pat_id][d].ents_on_pent[l][0];
  
             // Get the order of children indices incident on this half-face
             std::vector< int > id_sib( nch );
             for( int k = 0; k < nch; k++ )
                 id_sib[k] = 0;
  
             error = reorder_indices( cur_level, deg, ent, l, sib_entids[l], sib_lids[l], 1, &id_sib[0] );MB_CHK_ERR( error );
  
             // Get the parent index of the sibling cell
             int psib;
             if( cur_level )
                 psib = sib_entids[l] - level_mesh[cur_level - 1].start_cell;
             else
                 psib = sib_entids[l] - *_incells.begin();
  
             int plid = sib_lids[l];
             int sidx = nchilds * psib;
             int sibpat_id;
             if( type == MBTET )
                 sibpat_id = ( *pattern_ids )[psib];
             else
                 sibpat_id = type - 1;
  
             // Loop over all the childs incident on the working half-face
             idx = nchilds * i;
  
             for( int k = 0; k < nch; k++ )
             {
                 id                     = refTemplates[pat_id][d].ents_on_pent[l][k + 1] - 1;
                 EntityHandle child_ent = level_mesh[cur_level].start_cell + idx + id;
                 int child_lid          = l;
  
                 // Find the sibling of the working child
                 EntityHandle child_sibent;
                 int child_siblid;
                 error = ahf->get_sibling_map( type, child_ent, child_lid, child_sibent, child_siblid );MB_CHK_ERR( error );
  
                 if( child_sibent != 0 ) continue;
  
                 // Get the correponding child of the sibling of the current parent
                 // We have already computed the order the children on incident corresponding to the
                 // working half-face
                 id = refTemplates[sibpat_id][d].ents_on_pent[plid][id_sib[k]] - 1;
  
                 EntityHandle psib_child = level_mesh[cur_level].start_cell + sidx + id;
                 int psib_chlid          = plid;
  
                 // Set the siblings of children incident on current half-face
                 error = ahf->set_sibling_map( type, child_ent, child_lid, psib_child, psib_chlid );MB_CHK_ERR( error );
  
                 // Set the sibling of the sibling of the children to the children
                 error = ahf->set_sibling_map( type, psib_child, psib_chlid, child_ent, child_lid );MB_CHK_ERR( error );
             }
         }
  
         // Loop over edges to check if there are any non-manifold edges. If there are then the v2hfs
         // map should be updated for the new vertices on it.
         const EntityHandle* conn;
         error = mbImpl->get_connectivity( ent, conn, nvpc );MB_CHK_ERR( error );
  
         int nv = refTemplates[type - 1][d].nv_edge;  //#verts on each edge
         for( int l = 0; l < ne; l++ )
         {
             id                   = ahf->lConnMap3D[index].e2v[l][0];
             EntityHandle v_start = conn[id];
             id                   = ahf->lConnMap3D[index].e2v[l][1];
             EntityHandle v_end   = conn[id];
  
             bool visited = false;
  
             std::vector< EntityHandle > inci_ent1, inci_ent2;
             std::vector< int > inci_lid1, inci_lid2;
             error = ahf->get_incident_map( type, v_start, inci_ent1, inci_lid1 );MB_CHK_ERR( error );
             error = ahf->get_incident_map( type, v_end, inci_ent2, inci_lid2 );MB_CHK_ERR( error );
  
             if( inci_ent1.size() > 1 && inci_ent2.size() > 1 )
             {
                 std::vector< EntityHandle > cell_comps;
                 std::vector< int > leid_comps;
  
                 error = ahf->get_up_adjacencies_edg_3d_comp( ent, l, cell_comps, &leid_comps );MB_CHK_ERR( error );
  
                 int ncomps = cell_comps.size();
                 std::vector< EntityHandle > edgverts;
                 std::vector< EntityHandle > compchildents( nv * ncomps );
                 std::vector< int > compchildlfids( nv * ncomps );
  
                 for( int s = 0; s < nv * ncomps; s++ )
                 {
                     compchildents[s]  = 0;
                     compchildlfids[s] = 0;
                 }
  
                 for( int j = 0; j < (int)cell_comps.size(); j++ )
                 {
                     int ind;
                     if( cur_level )
                         ind = level_mesh[cur_level - 1].cells.index( cell_comps[j] );
                     else
                         ind = _incells.index( cell_comps[j] );
  
                     for( int k = 0; k < nv; k++ )
                     {
                         int chid = refTemplates[type - 1][d].ents_on_vedge[leid_comps[j]][3 * k] - 1;
                         int lfid = refTemplates[type - 1][d].ents_on_vedge[leid_comps[j]][3 * k + 1];
                         int lvid = refTemplates[type - 1][d].ents_on_vedge[leid_comps[j]][3 * k + 2];
  
                         EntityHandle childcell = level_mesh[cur_level].start_cell + ind * nchilds + chid;
  
                         const EntityHandle* econn;
                         error = mbImpl->get_connectivity( childcell, econn, nvpc );MB_CHK_ERR( error );
  
                         EntityHandle vert = econn[lvid];
  
                         if( ahf->check_nonmanifold_vertices( type, vert ) )
                         {
                             visited = true;
                             break;
                         }
  
                         if( edgverts.empty() )
                         {
                             edgverts.push_back( vert );
                             compchildents[0]  = childcell;
                             compchildlfids[0] = lfid;
                         }
                         else
                         {
                             std::vector< EntityHandle >::iterator it;
                             it       = find( edgverts.begin(), edgverts.end(), vert );
                             int indx = it - edgverts.begin();
  
                             if( it == edgverts.end() )
                             {
                                 edgverts.push_back( vert );
                                 compchildents[k * ncomps]  = childcell;
                                 compchildlfids[k * ncomps] = lfid;
                             }
                             else
                             {
                                 compchildents[indx * ncomps + j]  = childcell;
                                 compchildlfids[indx * ncomps + j] = lfid;
                             }
                         }
                     }
                 }
  
                 if( visited )
                 {
                     break;
                 }
  
                 // Set the incident half-facet map
                 for( int k = 0; k < nv; k++ )
                 {
                     std::vector< EntityHandle > set_childents;
                     std::vector< int > set_childlfids;
                     for( int j = 0; j < ncomps; j++ )
                     {
                         set_childents.push_back( compchildents[k * ncomps + j] );
                         set_childlfids.push_back( compchildlfids[k * ncomps + j] );
                     }
  
                     error = ahf->set_incident_map( type, edgverts[k], set_childents, set_childlfids );MB_CHK_ERR( error );
                 }
             }
         }
     }
  
     return MB_SUCCESS;
 }

Referenced by update_global_ahf().

◆ update_local_ahf() [1/2]

ErrorCode moab::NestedRefine::update_local_ahf	(	int	deg,
		EntityType	type,
		EntityHandle *	vbuffer,
		EntityHandle *	ent_buffer,
		int	etotal
	)

protected

Definition at line 3100 of file NestedRefine.cpp.

 {
     ErrorCode error;
     assert( type != MBTET );
     error = update_local_ahf( deg, type, type - 1, vbuffer, ent_buffer, etotal );MB_CHK_ERR( error );
  
     return MB_SUCCESS;
 }

References moab::error(), ErrorCode, MB_CHK_ERR, MB_SUCCESS, and MBTET.

Referenced by construct_hm_1D(), construct_hm_2D(), subdivide_cells(), and subdivide_tets().

◆ update_local_ahf() [2/2]

ErrorCode moab::NestedRefine::update_local_ahf	(	int	deg,
		EntityType	type,
		int	pat_id,
		EntityHandle *	vbuffer,
		EntityHandle *	ent_buffer,
		int	etotal
	)

protected

Definition at line 3005 of file NestedRefine.cpp.

 {
     ErrorCode error;
     int nhf = 0, nv = 0, total_new_verts = 0;
     int d = get_index_from_degree( deg );
  
     // Get the number of half-facets
     if( type == MBEDGE )
     {
         nhf             = 2;
         nv              = 2;
         total_new_verts = refTemplates[0][d].total_new_verts;
     }
     else if( type == MBTRI || type == MBQUAD )
     {
         nhf             = ahf->lConnMap2D[type - 2].num_verts_in_face;
         nv              = nhf;
         total_new_verts = refTemplates[pat_id][d].total_new_verts;
     }
     else if( type == MBTET || type == MBHEX )
     {
         int index       = ahf->get_index_in_lmap( *_incells.begin() );
         nhf             = ahf->lConnMap3D[index].num_faces_in_cell;
         nv              = ahf->lConnMap3D[index].num_verts_in_cell;
         total_new_verts = refTemplates[pat_id][d].total_new_verts;
     }
  
     std::vector< EntityHandle > ent;
     std::vector< int > lid;
  
     // Update the vertex to half-facet map
     for( int i = 0; i < total_new_verts; i++ )
     {
         ent.clear();
         lid.clear();
         EntityHandle vid = vbuffer[i + nv];
         error            = ahf->get_incident_map( type, vid, ent, lid );MB_CHK_ERR( error );
  
         if( ent[0] ) continue;
  
         int id = refTemplates[pat_id][d].v2hf[i + nv][0] - 1;
         ent[0] = ent_buffer[id];
         lid[0] = refTemplates[pat_id][d].v2hf[i + nv][1];
  
         error = ahf->set_incident_map( type, vid, ent, lid );MB_CHK_ERR( error );
     }
  
     // Update the sibling half-facet map
     for( int i = 0; i < etotal; i++ )
     {
         std::vector< EntityHandle > sib_entids( nhf );
         std::vector< int > sib_lids( nhf );
  
         error = ahf->get_sibling_map( type, ent_buffer[i], &sib_entids[0], &sib_lids[0], nhf );MB_CHK_ERR( error );
  
         for( int l = 0; l < nhf; l++ )
         {
             if( sib_entids[l] ) continue;
  
             // Fill out the sibling values
             int id = refTemplates[pat_id][d].ents_opphfs[i][2 * l];
             if( id )
             {
                 sib_entids[l] = ent_buffer[id - 1];
                 sib_lids[l]   = refTemplates[pat_id][d].ents_opphfs[i][2 * l + 1];
             }
             else
             {
                 sib_entids[l] = 0;
                 sib_lids[l]   = 0;
             }
         }
  
         error = ahf->set_sibling_map( type, ent_buffer[i], &sib_entids[0], &sib_lids[0], nhf );MB_CHK_ERR( error );
  
         for( int l = 0; l < nhf; l++ )
         {
             if( sib_entids[l] )
             {
  
                 EntityHandle set_entid = ent_buffer[i];
                 int set_lid            = l;
  
                 error = ahf->set_sibling_map( type, sib_entids[l], sib_lids[l], set_entid, set_lid );MB_CHK_ERR( error );
             }
         }
     }
     return MB_SUCCESS;
 }

◆ update_special_tags()

ErrorCode moab::NestedRefine::update_special_tags	(	int	level,
		EntityHandle &	lset
	)

Definition at line 496 of file NestedRefine.cpp.

 {
     assert( level > 0 && level < nlevels + 1 );
  
     ErrorCode error;
     std::vector< Tag > mtags( 3 );
  
     error = mbImpl->tag_get_handle( MATERIAL_SET_TAG_NAME, 1, MB_TYPE_INTEGER, mtags[0] );MB_CHK_ERR( error );
     error = mbImpl->tag_get_handle( DIRICHLET_SET_TAG_NAME, 1, MB_TYPE_INTEGER, mtags[1] );MB_CHK_ERR( error );
     error = mbImpl->tag_get_handle( NEUMANN_SET_TAG_NAME, 1, MB_TYPE_INTEGER, mtags[2] );MB_CHK_ERR( error );
  
     for( int i = 0; i < 3; i++ )
     {
         // Gather sets of a particular tag
         Range sets;
         error = mbImpl->get_entities_by_type_and_tag( _rset, MBENTITYSET, &mtags[i], NULL, 1, sets );MB_CHK_ERR( error );
  
         // Loop over all sets, gather entities in each set and add their children at all levels to
         // the set
         Range set_ents;
         Range::iterator set_it;
         std::vector< EntityHandle > childs;
  
         for( set_it = sets.begin(); set_it != sets.end(); ++set_it )
         {
             // Get the entities in the set, recursively
             set_ents.clear();
             childs.clear();
             error = mbImpl->get_entities_by_handle( *set_it, set_ents, true );MB_CHK_ERR( error );
  
             // Gather child entities at the input level
             for( Range::iterator sit = set_ents.begin(); sit != set_ents.end(); sit++ )
             {
                 EntityType type = mbImpl->type_from_handle( *sit );
                 if( type == MBVERTEX )
                 {
                     Range conn;
                     std::vector< EntityHandle > cents;
                     error = vertex_to_entities_down( *sit, 0, level, cents );MB_CHK_ERR( error );
                     error = mbImpl->get_connectivity( &cents[0], (int)cents.size(), conn, true );MB_CHK_ERR( error );
                     childs.insert( childs.end(), cents.begin(), cents.end() );
                 }
                 else
                 {
                     error = parent_to_child( *sit, 0, level, childs );MB_CHK_ERR( error );
                 }
  
                 std::sort( childs.begin(), childs.end() );
                 childs.erase( std::unique( childs.begin(), childs.end() ), childs.end() );
  
                 // Add child entities to tagged sets
                 error = mbImpl->add_entities( *set_it, &childs[0], childs.size() );MB_CHK_ERR( error );
             }
  
             // Remove the coarse entities
             error = mbImpl->remove_entities( *set_it, set_ents );MB_CHK_ERR( error );
  
             // Add
             error = mbImpl->add_entities( lset, &( *set_it ), 1 );MB_CHK_ERR( error );
         }
     }
     return MB_SUCCESS;
 }

References _rset, moab::Core::add_entities(), moab::Range::begin(), moab::Range::clear(), DIRICHLET_SET_TAG_NAME, moab::Range::end(), moab::error(), ErrorCode, moab::Core::get_connectivity(), moab::Core::get_entities_by_handle(), moab::Core::get_entities_by_type_and_tag(), MATERIAL_SET_TAG_NAME, MB_CHK_ERR, MB_SUCCESS, MB_TYPE_INTEGER, MBENTITYSET, mbImpl, MBVERTEX, NEUMANN_SET_TAG_NAME, nlevels, parent_to_child(), moab::Core::remove_entities(), moab::Core::tag_get_handle(), moab::Core::type_from_handle(), and vertex_to_entities_down().

◆ update_tracking_verts()

ErrorCode moab::NestedRefine::update_tracking_verts	(	EntityHandle	cid,
		int	cur_level,
		int	deg,
		std::vector< EntityHandle > &	trackvertsC_edg,
		std::vector< EntityHandle > &	trackvertsC_face,
		EntityHandle *	vbuffer
	)

protected

Definition at line 4196 of file NestedRefine.cpp.

 {
     // The vertices in the vbuffer are added to appropriate edges and faces of cells that are
     // incident on the working cell.
     ErrorCode error;
  
     EntityHandle cstart_prev;
     if( cur_level )
         cstart_prev = level_mesh[cur_level - 1].start_cell;
     else
         cstart_prev = *_incells.begin();
  
     EntityType cell_type = mbImpl->type_from_handle( cstart_prev );
     int cindex           = cell_type - 1;
     int d                = get_index_from_degree( deg );
  
     int nve = refTemplates[cindex][d].nv_edge;
     int nvf = refTemplates[cindex][d].nv_face;
  
     int index = ahf->get_index_in_lmap( *( _incells.begin() ) );
     int nepc  = ahf->lConnMap3D[index].num_edges_in_cell;
     int nfpc  = ahf->lConnMap3D[index].num_faces_in_cell;
  
     // Step 1: Add the vertices on an edge of the working cell to tracking array of incident cells.
     for( int i = 0; i < nepc; i++ )
     {
         // Add the vertices to edges of the current cell
         for( int j = 0; j < nve; j++ )
         {
             int id  = refTemplates[cindex][d].vert_on_edges[i][j];
             int idx = cid - cstart_prev;
             int aid = idx * nve * nepc + nve * i + j;
  
             if( !trackvertsC_edg[aid] ) trackvertsC_edg[aid] = vbuffer[id];
         }
  
         // Obtain all the incident cells
         std::vector< EntityHandle > inc_cids;
         std::vector< int > inc_leids, inc_orient;
  
         error = ahf->get_up_adjacencies_edg_3d( cid, i, inc_cids, &inc_leids, &inc_orient );MB_CHK_ERR( error );
  
         if( inc_cids.size() == 1 ) continue;
  
         // Add the vertices to the edges of the incident cells
         for( int k = 0; k < (int)inc_cids.size(); k++ )
         {
             if( inc_cids[k] == cid ) continue;
  
             int idx = inc_cids[k] - cstart_prev;
  
             if( inc_orient[k] )  // Same edge direction as the current edge
             {
                 for( int j = 0; j < nve; j++ )
                 {
                     int id  = refTemplates[cindex][d].vert_on_edges[i][j];
                     int aid = idx * nve * nepc + nve * inc_leids[k] + j;
  
                     if( !trackvertsC_edg[aid] ) trackvertsC_edg[aid] = vbuffer[id];
                 }
             }
             else
             {
                 for( int j = 0; j < nve; j++ )
                 {
                     int id  = refTemplates[cindex][d].vert_on_edges[i][nve - j - 1];
                     int aid = idx * nve * nepc + nve * inc_leids[k] + j;
  
                     if( !trackvertsC_edg[aid] ) trackvertsC_edg[aid] = vbuffer[id];
                 }
             }
         }
     }
  
     // Step 2: Add the vertices on a face of the working cell to tracking array of incident cells.
     if( nvf )
     {
  
         for( int i = 0; i < nfpc; i++ )
         {
             // Add vertices to the tracking array of vertices on faces for the current cell
             std::vector< EntityHandle > face_vbuf( nvf, 0 );
             for( int j = 0; j < nvf; j++ )
             {
                 int id  = refTemplates[cindex][d].vert_on_faces[i][j];
                 int idx = cid - cstart_prev;
                 int aid = idx * nvf * nfpc + nvf * i + j;
  
                 if( !trackvertsC_face[aid] ) trackvertsC_face[aid] = vbuffer[id];
  
                 face_vbuf[j] = vbuffer[id];
             }
  
             // Obtain all the incident cells
             std::vector< EntityHandle > sib_cids;
             std::vector< int > sib_lfids;
             error = ahf->get_up_adjacencies_face_3d( cid, i, sib_cids, &sib_lfids );MB_CHK_ERR( error );
  
             if( sib_cids.size() == 1 ) continue;
  
             // Reorder the vertex local ids incident on the half-face
             std::vector< int > id_sib( nvf );
             for( int k = 0; k < nvf; k++ )
                 id_sib[k] = 0;
  
             error = reorder_indices( cur_level, deg, sib_cids[1], sib_lfids[1], cid, i, 0, &id_sib[0] );MB_CHK_ERR( error );
  
             // Add vertices to the tracking array of vertices on faces for the sibling cell of the
             // current cell
             for( int j = 0; j < nvf; j++ )
             {
                 int idx = sib_cids[1] - cstart_prev;
                 int aid = idx * nvf * nfpc + nvf * sib_lfids[1] + j;
  
                 if( !trackvertsC_face[aid] ) trackvertsC_face[aid] = face_vbuf[id_sib[j] - 1];
             }
         }
     }
     return MB_SUCCESS;
 }

References _incells, ahf, moab::Range::begin(), moab::error(), ErrorCode, get_index_from_degree(), moab::HalfFacetRep::get_index_in_lmap(), moab::HalfFacetRep::get_up_adjacencies_edg_3d(), moab::HalfFacetRep::get_up_adjacencies_face_3d(), moab::HalfFacetRep::lConnMap3D, level_mesh, MB_CHK_ERR, MB_SUCCESS, mbImpl, moab::HalfFacetRep::LocalMaps3D::num_edges_in_cell, moab::HalfFacetRep::LocalMaps3D::num_faces_in_cell, moab::NestedRefine::refPatterns::nv_edge, moab::NestedRefine::refPatterns::nv_face, refTemplates, reorder_indices(), moab::NestedRefine::level_memory::start_cell, moab::Core::type_from_handle(), moab::NestedRefine::refPatterns::vert_on_edges, and moab::NestedRefine::refPatterns::vert_on_faces.

Referenced by subdivide_cells(), and subdivide_tets().

◆ vertex_to_entities_down()

ErrorCode moab::NestedRefine::vertex_to_entities_down	(	EntityHandle	vertex,
		int	vert_level,
		int	child_level,
		std::vector< EntityHandle > &	incident_entities
	)

Given a vertex from a certain level, it returns a std::vector of all children entities of incident entities to vertex from any subsequent levels

Parameters

vertex	EntityHandle of the vertex
vert_level	Mesh level of the vertex
child_level	Mesh level from which child entities are requested
incident_entities	Vector containing entities from the child level

Definition at line 388 of file NestedRefine.cpp.

 {
     assert( vert_level < child_level );
     ErrorCode error;
  
     // Step 1: Get the incident entities at the current level
     std::vector< EntityHandle > inents;
     if( meshdim == 1 )
     {
         error = ahf->get_up_adjacencies_1d( vertex, inents );MB_CHK_ERR( error );
     }
     else if( meshdim == 2 )
     {
         error = ahf->get_up_adjacencies_vert_2d( vertex, inents );MB_CHK_ERR( error );
     }
     else if( meshdim == 3 )
     {
         error = ahf->get_up_adjacencies_vert_3d( vertex, inents );MB_CHK_ERR( error );
     }
  
     // Step 2: Loop over all the incident entities at the current level and gather their parents
     std::vector< EntityHandle > childs;
     for( int i = 0; i < (int)inents.size(); i++ )
     {
         childs.clear();
         EntityHandle ent = inents[i];
         error            = parent_to_child( ent, vert_level, child_level, childs );MB_CHK_ERR( error );
         for( int j = 0; j < (int)childs.size(); j++ )
             incident_entities.push_back( childs[j] );
     }
  
     return MB_SUCCESS;
 }

References ahf, moab::error(), ErrorCode, moab::HalfFacetRep::get_up_adjacencies_1d(), moab::HalfFacetRep::get_up_adjacencies_vert_2d(), moab::HalfFacetRep::get_up_adjacencies_vert_3d(), MB_CHK_ERR, MB_SUCCESS, meshdim, and parent_to_child().

Referenced by update_special_tags().

◆ vertex_to_entities_up()

ErrorCode moab::NestedRefine::vertex_to_entities_up	(	EntityHandle	vertex,
		int	vert_level,
		int	parent_level,
		std::vector< EntityHandle > &	incident_entities
	)

Given a vertex from a certain level, it returns a std::vector of all entities from any previous levels that contains it.

Parameters

vertex	EntityHandle of the vertex
vert_level	Mesh level of the vertex
parent_level	Mesh level from which entities containing vertex is requested
incident_entities	Vector containing entities from the parent level incident on the vertex

Definition at line 348 of file NestedRefine.cpp.

 {
     assert( vert_level > parent_level );
     ErrorCode error;
  
     // Step 1: Get the incident entities at the current level
     std::vector< EntityHandle > inents;
     if( meshdim == 1 )
     {
         error = ahf->get_up_adjacencies_1d( vertex, inents );MB_CHK_ERR( error );
     }
     else if( meshdim == 2 )
     {
         error = ahf->get_up_adjacencies_vert_2d( vertex, inents );MB_CHK_ERR( error );
     }
     else if( meshdim == 3 )
     {
         error = ahf->get_up_adjacencies_vert_3d( vertex, inents );MB_CHK_ERR( error );
     }
  
     // Step 2: Loop over all the incident entities at the current level and gather their parents
     for( int i = 0; i < (int)inents.size(); i++ )
     {
         EntityHandle ent = inents[i];
         EntityHandle parent;
         error = child_to_parent( ent, vert_level, parent_level, &parent );MB_CHK_ERR( error );
         incident_entities.push_back( parent );
     }
  
     // Step 3: Sort and remove duplicates
     std::sort( incident_entities.begin(), incident_entities.end() );
     incident_entities.erase( std::unique( incident_entities.begin(), incident_entities.end() ),
                              incident_entities.end() );
  
     return MB_SUCCESS;
 }

References ahf, child_to_parent(), moab::error(), ErrorCode, moab::HalfFacetRep::get_up_adjacencies_1d(), moab::HalfFacetRep::get_up_adjacencies_vert_2d(), moab::HalfFacetRep::get_up_adjacencies_vert_3d(), MB_CHK_ERR, MB_SUCCESS, and meshdim.

Member Data Documentation

◆ _incells

Range moab::NestedRefine::_incells

protected

◆ _inedges

Range moab::NestedRefine::_inedges

protected

Definition at line 175 of file NestedRefine.hpp.

Referenced by child_to_parent(), construct_hm_1D(), construct_hm_2D(), count_subentities(), estimate_hm_storage(), initialize(), parent_to_child(), update_global_ahf_1D(), and update_global_ahf_1D_sub().

◆ _infaces

Range moab::NestedRefine::_infaces

protected

Definition at line 175 of file NestedRefine.hpp.

Referenced by child_to_parent(), compute_coordinates(), construct_hm_1D(), construct_hm_2D(), count_subentities(), create_hm_storage_single_level(), estimate_hm_storage(), initialize(), parent_to_child(), subdivide_cells(), subdivide_tets(), update_global_ahf_2D(), and update_global_ahf_2D_sub().

◆ _inverts

Range moab::NestedRefine::_inverts

protected

Definition at line 175 of file NestedRefine.hpp.

Referenced by construct_hm_1D(), construct_hm_2D(), copy_vertices_from_prev_level(), estimate_hm_storage(), get_vertex_duplicates(), initialize(), subdivide_cells(), subdivide_tets(), update_global_ahf_1D(), update_global_ahf_1D_sub(), update_global_ahf_2D(), update_global_ahf_2D_sub(), and update_global_ahf_3D().

◆ _rset

EntityHandle moab::NestedRefine::_rset

protected

Definition at line 173 of file NestedRefine.hpp.

Referenced by generate_hm(), generate_mesh_hierarchy(), initialize(), and update_special_tags().

◆ ahf

◆ deg_index

std::map< int, int > moab::NestedRefine::deg_index

protected

Definition at line 180 of file NestedRefine.hpp.

Referenced by get_index_from_degree(), and initialize().

◆ elementype

EntityType moab::NestedRefine::elementype

protected

Definition at line 177 of file NestedRefine.hpp.

Referenced by initialize(), is_cell_on_boundary(), is_edge_on_boundary(), is_face_on_boundary(), and is_vertex_on_boundary().

◆ hasghost

bool moab::NestedRefine::hasghost

protected

Definition at line 181 of file NestedRefine.hpp.

Referenced by exchange_ghosts(), and initialize().

◆ intFacEdg

const NestedRefine::intFEdge moab::NestedRefine::intFacEdg

staticprotected

Initial value:

= {
    
    { { 3, { { 3, 4 }, { 4, 5 }, { 5, 3 } } },
      { 9, { { 8, 3 }, { 3, 9 }, { 9, 4 }, { 4, 5 }, { 5, 9 }, { 9, 8 }, { 7, 9 }, { 9, 6 }, { 6, 7 } } } },
 
    
    { { 4, { { 4, 8 }, { 7, 8 }, { 8, 6 }, { 8, 5 } } },
      { 12,
        { { 4, 12 },
          { 12, 15 },
          { 15, 9 },
          { 5, 13 },
          { 13, 14 },
          { 14, 8 },
          { 11, 12 },
          { 12, 13 },
          { 13, 6 },
          { 10, 15 },
          { 15, 14 },
          { 14, 7 } } } } }

Definition at line 241 of file NestedRefine.hpp.

Referenced by construct_hm_2D(), and estimate_hm_storage().

◆ level_dsequence

int moab::NestedRefine::level_dsequence[MAX_LEVELS]

protected

Definition at line 179 of file NestedRefine.hpp.

Referenced by child_to_parent(), generate_mesh_hierarchy(), and parent_to_child().

◆ level_mesh

level_memory moab::NestedRefine::level_mesh[MAX_LEVELS]

protected

◆ mbImpl

Core* moab::NestedRefine::mbImpl

protected

◆ meshdim

int moab::NestedRefine::meshdim

protected

Definition at line 178 of file NestedRefine.hpp.

Referenced by estimate_hm_storage(), exchange_ghosts(), generate_mesh_hierarchy(), initialize(), is_cell_on_boundary(), is_edge_on_boundary(), is_face_on_boundary(), vertex_to_entities_down(), and vertex_to_entities_up().

◆ nlevels

int moab::NestedRefine::nlevels

protected

Definition at line 178 of file NestedRefine.hpp.

Referenced by generate_hm(), generate_mesh_hierarchy(), and update_special_tags().

◆ pcomm

ParallelComm* moab::NestedRefine::pcomm

protected

Definition at line 170 of file NestedRefine.hpp.

Referenced by exchange_ghosts(), generate_hm(), initialize(), and NestedRefine().

◆ permutation

const NestedRefine::pmat moab::NestedRefine::permutation

staticprotected

Definition at line 333 of file NestedRefine.hpp.

Referenced by reorder_indices().

◆ refTemplates

const NestedRefine::refPatterns moab::NestedRefine::refTemplates

staticprotected

refPatterns

Definition at line 231 of file NestedRefine.hpp.

Referenced by child_to_parent(), compute_coordinates(), construct_hm_1D(), construct_hm_2D(), estimate_hm_storage(), get_lid_inci_child(), parent_to_child(), subdivide_cells(), subdivide_tets(), update_global_ahf_1D(), update_global_ahf_1D_sub(), update_global_ahf_2D(), update_global_ahf_2D_sub(), update_global_ahf_3D(), update_local_ahf(), and update_tracking_verts().

◆ timeall

codeperf moab::NestedRefine::timeall

Definition at line 166 of file NestedRefine.hpp.

Referenced by generate_hm(), and main().

◆ tm

CpuTimer* moab::NestedRefine::tm

protected

Definition at line 172 of file NestedRefine.hpp.

Referenced by generate_hm(), initialize(), and ~NestedRefine().

The documentation for this class was generated from the following files:

Classes

Public Member Functions

Public Attributes

Protected Member Functions

Protected Attributes

Static Protected Attributes

Detailed Description

Constructor & Destructor Documentation

◆ NestedRefine()

◆ ~NestedRefine()

Member Function Documentation

◆ child_to_parent()

◆ compute_coordinates()

◆ construct_hm_1D() [1/2]

◆ construct_hm_1D() [2/2]

◆ construct_hm_2D() [1/2]

◆ construct_hm_2D() [2/2]

◆ construct_hm_3D()

◆ construct_hm_entities()

◆ copy_vertices_from_prev_level()

◆ count_subentities()

◆ create_hm_storage_single_level()

◆ estimate_hm_storage()

◆ exchange_ghosts()

◆ find_shortest_diagonal_octahedron()

◆ generate_hm()

◆ generate_mesh_hierarchy()

◆ get_adjacencies()

◆ get_connectivity()

◆ get_coordinates()

◆ get_index_from_degree()

◆ get_lid_inci_child()

◆ get_local_vid()

◆ get_octahedron_corner_coords()

◆ get_vertex_duplicates()

◆ initialize()

◆ is_cell_on_boundary()

◆ is_edge_on_boundary()

◆ is_entity_on_boundary()

◆ is_face_on_boundary()

◆ is_vertex_on_boundary()

◆ parent_to_child()

◆ print_maps_1D()

◆ print_maps_2D()

◆ print_maps_3D()

◆ reorder_indices() [1/4]

◆ reorder_indices() [2/4]

◆ reorder_indices() [3/4]

◆ reorder_indices() [4/4]

◆ subdivide_cells()

◆ subdivide_tets()

◆ update_ahf_1D()

◆ update_global_ahf()

◆ update_global_ahf_1D()

◆ update_global_ahf_1D_sub()

◆ update_global_ahf_2D()

◆ update_global_ahf_2D_sub()

◆ update_global_ahf_3D()

◆ update_local_ahf() [1/2]

◆ update_local_ahf() [2/2]

◆ update_special_tags()

◆ update_tracking_verts()

◆ vertex_to_entities_down()

◆ vertex_to_entities_up()

Member Data Documentation

◆ _incells

◆ _inedges

◆ _infaces

◆ _inverts

◆ _rset

◆ ahf

◆ deg_index

◆ elementype

◆ hasghost

◆ intFacEdg

◆ level_dsequence

◆ level_mesh

◆ mbImpl

◆ meshdim

◆ nlevels