QuadTreeRoot is a QuadTree that forms the root of a (recursive) quadtree. The "root node" is special as it holds additional information about its neighbours and their relative rotation (inside a QuadTreeForest). More...
#include <quadtree.h>
Public Member Functions | |
QuadTreeRoot (RefineableElement *const &object_pt) | |
Constructor for the (empty) root quadtree: Pass pointer to associated object, a RefineableQElement<2>. More... | |
QuadTreeRoot (const QuadTreeRoot &dummy)=delete | |
Broken copy constructor. More... | |
void | operator= (const QuadTreeRoot &)=delete |
Broken assignment operator. More... | |
int & | north_equivalent (const int &neighbour) |
Return north equivalent of the neighbours in specified direction: When viewed from the current quadtree's neighbour neighbour, our northern direction is the neighbour's north_equivalent(neighbour) direction. If there's no rotation, this map contains the identify so that, e.g. north_equivalent(W)=N (read as: "in my Western neighbour, my North is its North"). If the western neighbour is rotated by 180 degrees relative to the current quadtree, say, we have north_equivalent(W)=S (read as: "in my Western
neighbour, my North is its South"); etc. More... | |
int | direction_of_neighbour (QuadTreeRoot *quadtree_root_pt) |
If quadtree_root_pt is a neighbour, return the direction [N/S/E/W] in which it is found, otherwise return OMEGA. More... | |
Public Member Functions inherited from oomph::QuadTree | |
virtual | ~QuadTree () |
Destructor. Note: Deleting a quadtree also deletes the objects associated with all non-leaf nodes! More... | |
QuadTree (const QuadTree &dummy)=delete | |
Broken copy constructor. More... | |
void | operator= (const QuadTree &)=delete |
Broken assignment operator. More... | |
Tree * | construct_son (RefineableElement *const &object_pt, Tree *const &father_pt, const int &son_type) |
Overload the function construct_son to ensure that the son is a specific QuadTree and not a general Tree. More... | |
QuadTree * | gteq_edge_neighbour (const int &direction, Vector< unsigned > &translate_s, Vector< double > &s_lo, Vector< double > &s_hi, int &edge, int &diff_level, bool &in_neighbouring_tree) const |
Return pointer to greater or equal-sized edge neighbour in specified direction ; also provide info regarding the relative size and orientation of neighbour: More... | |
void | stick_neighbouring_leaves_into_vector (Vector< const QuadTree * > &tree_neighbouring_nodes, Vector< Vector< double >> &tree_neighbouring_s_lo, Vector< Vector< double >> &tree_neighbouring_s_hi, Vector< int > &tree_neighbouring_diff_level, const QuadTree *my_neigh_pt, const int &direction) const |
Traverse Tree: Preorder traverse and stick pointers to neighbouring leaf nodes (only) into Vector. More... | |
unsigned | self_test () |
Self-test: Check all neighbours. Return success (0) if the max. distance between corresponding points in the neighbours is less than the tolerance specified in the static value QuadTree::Max_neighbour_finding_tolerance. More... | |
Public Member Functions inherited from oomph::Tree | |
virtual | ~Tree () |
Destructor. Note: Deleting a tree also deletes the objects associated with its non-leave nodes. More... | |
Tree (const Tree &dummy)=delete | |
Broken copy constructor. More... | |
void | operator= (const Tree &)=delete |
Broken assignment operator. More... | |
RefineableElement * | object_pt () const |
Return the pointer to the object (RefineableElement) represented by the tree. More... | |
void | flush_object () |
Flush the object represented by the tree. More... | |
Tree * | son_pt (const int &son_index) const |
Return pointer to the son for a given index. Note that to aid code readability specific enums have been defined for specific trees. However, these are simply aliases for ints and the general interface can be implemented once, here. More... | |
void | set_son_pt (const Vector< Tree * > &son_pt) |
Set vector of pointers to sons, indexed by the appropriate enum that identies son types. (To aid code readability specific enums have been defined for specific trees. However, these are simply aliases for ints and the general interface can be implemented once, here). More... | |
unsigned | nsons () const |
Return number of sons (zero if it's a leaf node) More... | |
void | flush_sons () |
Flush the sons. More... | |
TreeRoot *& | root_pt () |
Return pointer to root of the tree. More... | |
TreeRoot * | root_pt () const |
Return pointer to root of the tree (const version) More... | |
template<class ELEMENT > | |
void | split_if_required () |
If required, split the leaf and create its sons – criterion: bool object_pt()-> to_be_refined() = true. More... | |
template<class ELEMENT > | |
void | p_refine_if_required (Mesh *&mesh_pt) |
If required, p-refine the leaf – criterion: bool object_pt()-> to_be_p_refined() = true or bool object_pt()-> to_be_p_unrefined() = true. More... | |
void | merge_sons_if_required (Mesh *&mesh_pt) |
If required, merge the four sons for unrefinement – criterion: bool object_pt()-> sons_to_be_unrefined() = true. More... | |
void | deactivate_object () |
Call the RefineableElement's deactivate_element() function. More... | |
void | traverse_all (Tree::VoidMemberFctPt member_function) |
Traverse the tree and execute void Tree member function member_function() at all its "nodes". More... | |
void | traverse_all (Tree::VoidMeshPtArgumentMemberFctPt member_function, Mesh *&mesh_pt) |
Traverse the tree and excute void Tree member function that takes a pointer to a mesh as an argument. More... | |
void | traverse_all_but_leaves (Tree::VoidMemberFctPt member_function) |
Traverse the tree and execute void Tree member function member_function() at all its "nodes" aparat from the leaves. More... | |
void | traverse_leaves (Tree::VoidMemberFctPt member_function) |
Traverse the tree and execute void Tree member function member_function() only at its leaves. More... | |
void | traverse_leaves (Tree::VoidMeshPtArgumentMemberFctPt member_function, Mesh *&mesh_pt) |
Traverse the tree and execute void Tree member function that takes a pointer to a mesh as an argument only at its leaves. More... | |
void | stick_leaves_into_vector (Vector< Tree * > &) |
Traverse tree and stick pointers to leaf "nodes" (only) into Vector. More... | |
void | stick_all_tree_nodes_into_vector (Vector< Tree * > &) |
Traverse and stick pointers to all "nodes" into Vector. More... | |
int | son_type () const |
Return son type. More... | |
bool | is_leaf () |
Return true if the tree is a leaf node. More... | |
Tree * | father_pt () const |
Return pointer to father: NULL if it's a root node. More... | |
void | set_father_pt (Tree *const &father_pt) |
Set the father. More... | |
unsigned | level () const |
Return the level of the Tree (root=0) More... | |
Public Member Functions inherited from oomph::TreeRoot | |
TreeRoot (RefineableElement *const &object_pt) | |
Constructor for the (empty) root tree. More... | |
TreeRoot (const TreeRoot &dummy)=delete | |
Broken copy constructor. More... | |
void | operator= (const TreeRoot &)=delete |
Broken assignment operator. More... | |
TreeRoot *& | neighbour_pt (const int &direction) |
Return the pointer to the neighbouring TreeRoots in specified direction. Returns NULL if there's no neighbour in this direction. More... | |
bool | is_neighbour_periodic (const int &direction) |
Return whether the neighbour in the particular direction is periodic. More... | |
void | set_neighbour_periodic (const int &direction) |
Set the neighbour in particular direction to be periodic. More... | |
void | set_neighbour_nonperiodic (const int &direction) |
Set the neighbour in particular direction to be nonperiodic. More... | |
unsigned | nneighbour () |
Return the number of neighbours. More... | |
Private Attributes | |
Vector< int > | North_equivalent |
Vector giving the north equivalent of the neighbours: When viewed from the current quadtree's neighbour neighbour, our northern direction is the neighbour's North_equivalent[neighbour] direction. If there's no rotation, this map contains the identify so that, e.g. North_equivalent [W]=N (read as: "in my Western
neighbour, my North is its North"). If the western neighbour is rotated by 180 degrees relative to the current quadtree, say, we have North_equivalent [W]=S (read as: "in my Western
neighbour, my North is its South"); etc. More... | |
Additional Inherited Members | |
Public Types inherited from oomph::Tree | |
typedef void(Tree::* | VoidMemberFctPt) () |
Function pointer to argument-free void Tree member function. More... | |
typedef void(Tree::* | VoidMeshPtArgumentMemberFctPt) (Mesh *&mesh_pt) |
Function pointer to a void Tree member function that takes a pointer to a mesh as its argument. More... | |
Static Public Member Functions inherited from oomph::QuadTree | |
static void | setup_static_data () |
Setup the static data, rotation and reflection schemes, etc. More... | |
static void | doc_neighbours (Vector< Tree * > forest_nodes_pt, std::ofstream &neighbours_file, std::ofstream &neighbours_txt_file, double &max_error) |
Doc/check all neighbours of quadtree (nodes) contained in the Vector forest_node_pt. Output into neighbours_file which can be viewed from tecplot with QuadTreeNeighbours.mcr Neighbour info and errors are displayed on neighbours_txt_file. Finally, compute the max. error between vertices when viewed from neighhbouring element. If the two filestreams are closed, output is suppressed. More... | |
Static Public Member Functions inherited from oomph::Tree | |
static double & | max_neighbour_finding_tolerance () |
Max. allowed discrepancy in neighbour finding routine (distance between points when identified from two neighbouring elements) More... | |
Static Public Attributes inherited from oomph::QuadTree | |
static Vector< std::string > | Direct_string |
Translate (enumerated) directions into strings. More... | |
Static Public Attributes inherited from oomph::Tree | |
static const int | OMEGA = 26 |
Default value for an unassigned neighbour. More... | |
Protected Member Functions inherited from oomph::QuadTree | |
QuadTree () | |
Default constructor (empty and broken) More... | |
QuadTree (RefineableElement *const &object_pt) | |
Default constructor for empty (root) tree: no father, no sons; just pass a pointer to its object Protected because QuadTrees can only be created internally, during the split operation. Only QuadTreeRoots can be created externally. More... | |
QuadTree (RefineableElement *const &object_pt, Tree *const &father_pt, const int &son_type) | |
Constructor for tree that has a father: Pass it the pointer to its object, the pointer to its father and tell it what type of son (SE/SW/NE/NW) it is. Protected because QuadTrees can only be created internally, during the split operation. Only QuadTreeRoots can be created externally. More... | |
Protected Member Functions inherited from oomph::Tree | |
Tree () | |
Default constructor (empty and broken) More... | |
Tree (RefineableElement *const &object_pt) | |
Default constructor for empty (root) tree: no father, no sons; just pass a pointer to its object Protected because Trees can only be created internally, during the split operation. Only TreeRoots can be created externally. More... | |
Tree (RefineableElement *const &object_pt, Tree *const &father_pt, const int &son_type) | |
Constructor for tree that has a father: Pass it the pointer to its object, the pointer to its father and tell it what type of son it is. Protected because Trees can only be created internally, during the split operation. Only TreeRoots can be created externally. More... | |
Protected Attributes inherited from oomph::Tree | |
TreeRoot * | Root_pt |
Pointer to the root of the tree. More... | |
Tree * | Father_pt |
Pointer to the Father of the Tree. More... | |
Vector< Tree * > | Son_pt |
Vector of pointers to the sons of the Tree. More... | |
int | Level |
Level of the Tree (level 0 = root) More... | |
int | Son_type |
Son type (e.g. SW/SE/NW/NE in a quadtree) More... | |
RefineableElement * | Object_pt |
Pointer to the object represented by the tree. More... | |
Protected Attributes inherited from oomph::TreeRoot | |
std::map< int, TreeRoot * > | Neighbour_pt |
Map of pointers to the neighbouring TreeRoots: Neighbour_pt[direction] returns the pointer to the TreeRoot's neighbour in the (enumerated) direction. Returns NULL if there's no neighbour in this direction. More... | |
std::map< int, bool > | Neighbour_periodic |
Map of booleans used for periodic boundaries: Neighbour_periodic_direction[directon] returns true if the neighbour in that direction is actually a periodic neighbour — shared data values, but independent position. The default return of the map is false. More... | |
Static Protected Attributes inherited from oomph::QuadTree | |
static bool | Static_data_has_been_setup = false |
Bool indicating that static member data has been setup. More... | |
Static Protected Attributes inherited from oomph::Tree | |
static double | Max_neighbour_finding_tolerance = 1.0e-14 |
Max. allowed discrepancy in neighbour finding routine (distance between points when identified from two neighbouring elements) More... | |
QuadTreeRoot is a QuadTree that forms the root of a (recursive) quadtree. The "root node" is special as it holds additional information about its neighbours and their relative rotation (inside a QuadTreeForest).
Definition at line 292 of file quadtree.h.
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inline |
Constructor for the (empty) root quadtree: Pass pointer to associated object, a RefineableQElement<2>.
Definition at line 309 of file quadtree.h.
References oomph::QuadTreeNames::E, oomph::QuadTreeNames::N, North_equivalent, oomph::QuadTreeNames::S, oomph::QuadTree::Static_data_has_been_setup, oomph::Global_string_for_annotation::string(), and oomph::QuadTreeNames::W.
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delete |
Broken copy constructor.
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inline |
If quadtree_root_pt is a neighbour, return the direction [N/S/E/W] in which it is found, otherwise return OMEGA.
Definition at line 377 of file quadtree.h.
References oomph::QuadTreeNames::E, oomph::QuadTreeNames::N, oomph::TreeRoot::Neighbour_pt, oomph::Tree::OMEGA, oomph::QuadTreeNames::S, and oomph::QuadTreeNames::W.
Referenced by oomph::QuadTreeForest::construct_north_equivalents().
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inline |
Return north equivalent of the neighbours in specified direction: When viewed from the current quadtree's neighbour
neighbour, our northern direction is the neighbour's north_equivalent(neighbour) direction. If there's no rotation, this map contains the identify so that, e.g. north_equivalent(W)=N
(read as: "in my Western neighbour, my North is its North"). If the western neighbour is rotated by 180 degrees relative to the current quadtree, say, we have north_equivalent(W)=S
(read as: "in my Western
neighbour, my North is its South"); etc.
Definition at line 354 of file quadtree.h.
References oomph::QuadTree::Direct_string, oomph::QuadTreeNames::E, oomph::QuadTreeNames::N, North_equivalent, oomph::QuadTreeNames::S, and oomph::QuadTreeNames::W.
Referenced by oomph::QuadTreeForest::construct_north_equivalents(), and oomph::QuadTree::gteq_edge_neighbour().
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delete |
Broken assignment operator.
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private |
Vector giving the north equivalent of the neighbours: When viewed from the current quadtree's neighbour
neighbour, our northern direction is the neighbour's North_equivalent[neighbour] direction. If there's no rotation, this map contains the identify so that, e.g. North_equivalent
[W]=N (read as: "in my Western
neighbour, my North is its North"). If the western neighbour is rotated by 180 degrees relative to the current quadtree, say, we have North_equivalent
[W]=S (read as: "in my Western
neighbour, my North is its South"); etc.
Definition at line 304 of file quadtree.h.
Referenced by north_equivalent(), and QuadTreeRoot().