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315 | #ifndef AMR_edge_store_h
#define AMR_edge_store_h
#include <cassert>
#include "Loggers.hpp"
#include "AMR/AMR_types.hpp"
namespace AMR {
class edge_store_t {
public:
// TODO: convert this to an unordered map with a custom hash (can lift from Quinoa)
edges_t edges;
// Node connectivity does this any way, but in a slightly less efficient way
// Maps the edge to the child node which splits it
// This was added retrospectivley to support the operation "for
// edge formed of initial nodes {A,B}, what node(s) were added
// between them"
// NOTE: At some point, this could probably be deleted..
// NOTE: This is only mainted by split.
//std::map<edge_t, size_t> children;
size_t size()
{
return edges.size();
}
/**
* @brief Function to create new edge between two nodes with an
* intermediate. Given nodes A, B, and AB makes edge A->AB and AB->B
*
* @param A First end node
* @param B Second end node
* @param AB Intermediate node
* @param lc Lock case for the new edges
*/
void split(size_t A, size_t B, size_t AB, Edge_Lock_Case lc)
{
trace_out << "Splitting with lock case " << lc << std::endl;
generate(A, AB, lc);
generate(B, AB, lc);
//children.insert( std::pair<edge_t, size_t>(edge_t(A,B), AB));
// Generate pertinent keys
//edge_t keyAB = nodes_to_key(A, B);
// NOTE: This isn't explicitly needed in the paper, and may be
// implicitly dealt with somewhere?
//mark_edge_for_refinement(keyAB);
}
/**
* @brief Given nodes A and B, generate an edge between them
*
* @param A First node
* @param B Second node
* @param lc Lock case for new edge
*/
void generate(size_t A, size_t B, Edge_Lock_Case lc)
{
if ((A != 0) && (B != 0)) {
trace_out << "A " << A << " B " << B << std::endl;
assert(A != B);
}
// Generate key
edge_t keyAB = nodes_to_key(A, B);
//Create refined edge
Edge_Refinement edgeAB = Edge_Refinement(A, B, false, false, lc);
// Add edge to store
add(keyAB, edgeAB);
}
bool exists(edge_t key)
{
if (edges.find(key) != edges.end())
{
return true;
}
return false;
}
/**
* @brief Function to retrieve an edge from the edge store
*
* @param key Key of the edge to get
*
* @return A reference to the fetched edge
*/
Edge_Refinement& get(edge_t key)
{
//trace_out << "get edge " << key << std::endl;
// cppcheck-suppress assertWithSideEffect
if (!exists(key)) trace_out << "key not found " << key.first()
<< " - " << key.second() << std::endl;
assert( exists(key) );<--- Assert statement calls a function which may have desired side effects: 'exists'. [+]Non-pure function: 'exists' is called inside assert statement. Assert statements are removed from release builds so the code inside assert statement is not executed. If the code is needed also in release builds, this is a bug.
return edges[key];
}
Edge_Lock_Case lock_case(const edge_t& key)
{
return get(key).lock_case;
}
void erase(edge_t key)
{
trace_out << "Deref removing edge: " << key.first() << " - "
<< key.second() << std::endl;
edges.erase(key);
}
/**
* @brief Function to add edge to edge store
*
* @param key The key for the given edge
* @param e The edge data
*
* Note: This tolerate the addition of duplicate edges
*/
void add(edge_t key, Edge_Refinement e)
{
// Add edge if it doesn't exist (default behavior of insert)
edges.insert( std::pair<edge_t, Edge_Refinement>(key, e));
// TODO: It may be worth adding a check here to ensure if we're
// trying to add a new edge that exists it should contain the
// same data
}
static edge_t nodes_to_key(size_t A, size_t B)
{
return edge_t(A,B);
}
/**
* @brief Function to build a string key from two node ids
* NOTE: Regardless of order of arguments, the same key will be generated
*/
//static std::string nodes_to_key(size_t A, size_t B)
//{
//return std::to_string(std::min(A,B)) + KEY_DELIM + std::to_string(std::max(A,B));
//}
/**
* @brief function to take the nodes representing a face
* and to build the possible edges based on that
*
* For a given face {ABC}, generate the edge pairs {AB, AC, BC}
*
* @param face_ids The ids of the face to generate this for
*
* @return A (partially filled) list of all edges present on the
* face
*/
// FIXME: Is it OK that it leaves some of the array blank?
static edge_list_t generate_keys_from_face_ids(face_ids_t face_ids)
{
edge_list_t key_list;
size_t A = face_ids[0];
size_t B = face_ids[1];
size_t C = face_ids[2];
edge_t key = nodes_to_key(A,B);
key_list[0] = key; // TODO: Is it OK to use copy assignment here?
key = nodes_to_key(A,C);
key_list[1] = key;
key = nodes_to_key(B,C);
key_list[2] = key;
return key_list;
}
/**
* @brief function to take a list of edge and mark them all
* as needing to be refined
*
* @param ids List of ids to mark for refinement
*/
void mark_edges_for_refinement(std::vector<node_pair_t> ids) {
for (const auto& id : ids)
{
edge_t key = nodes_to_key(id[0], id[1]);
mark_for_refinement(key);
trace_out << get(key).needs_refining << std::endl;
}
}
/**
* @brief function to mark a single edge as needing
* refinement (provides a nice abstraction from messing with the
* struct directly).
*
* @param key The edge key to mark as refinement
*/
void mark_for_refinement(const edge_t& key)
{
// cppcheck-suppress assertWithSideEffect
assert( exists(key) );
get(key).needs_refining = 1;
}
/**
* @brief function to take a list of edge and mark them all
* as needing to be refined as a part of the 8:4 derefinement
*
* @param ids List of ids to mark for deref-refinement
*/
void mark_edges_for_deref_ref(std::vector<node_pair_t> ids)
{
for (const auto& id : ids)
{
edge_t key = nodes_to_key(id[0], id[1]);
// cppcheck-suppress assertWithSideEffect
assert( exists(key) );
// value of 2 for needs_refining indicates part of derefine
get(key).needs_refining = 2;
trace_out << get(key).needs_refining << std::endl;
}
}
/**
* @brief Function to unmark and edge as needing refinement
*
* @param key The key representing the edge to unmark
*/
void unmark_for_refinement(const edge_t& key)
{
// cppcheck-suppress assertWithSideEffect
assert( exists(key) );
get(key).needs_refining = 0;
}
/**
* @brief For a given list of node pairs, mark the edge as needing
* to be de-refined
*
* @param ids a vector of pairs to mark for derefinement
*/
void mark_edges_for_derefinement(std::vector<node_pair_t> ids) {
for (const auto& id : ids)
{
edge_t key = nodes_to_key(id[0], id[1]);
mark_edge_for_derefinement(key);
}
}
void mark_edge_for_derefinement(const edge_t& key) {
get(key).needs_derefining = true;
}
/**
* @brief Function to generate a list of edge keys from a tet
*
* @param tet The tet to generate edge pairs for
*
* @return A list (array) of edge keys which can be separated out to
* name the two composing node ids
*/
edge_list_t generate_keys(tet_t tet)
{
// FIXME : Generate these with a (2d) loop and not hard code them?
edge_list_t key_list;
size_t A = tet[0];
size_t B = tet[1];
size_t C = tet[2];
size_t D = tet[3];
edge_t key;
key = nodes_to_key(A,B);
key_list[0] = key;
key = nodes_to_key(A,C);
key_list[1] = key;
key = nodes_to_key(A,D);
key_list[2] = key;
key = nodes_to_key(B,C);
key_list[3] = key;
key = nodes_to_key(B,D);
key_list[4] = key;
key = nodes_to_key(C,D);
key_list[5] = key;
return key_list;
}
/**
* @brief Helper debug function to print edge information
*/
void print() {
for (const auto& kv : edges)
{
trace_out << "edge " << kv.first << " between " <<
kv.second.A << " and " << kv.second.B <<
std::endl;
}
}
};
}
#endif // AMR_edge_store
|