Exemple #1
0
TreeNode *newExpNode(ExpKind kind)
{
    TreeNode *t;

    t = allocNewNode();
    if (t)
    {
        t->nodekind = ExpK;
        t->kind.exp = kind;
    }

    return t;
}
Exemple #2
0
TreeNode *newDecNode(DecKind kind)
{
    TreeNode *t;

    t = allocNewNode();
    if (t)
    {
        t->nodekind = DecK;
        t->kind.dec = kind;
    }

    return t;
}
Exemple #3
0
TreeNode *newStmtNode(StmtKind kind)
{
    TreeNode *t;

    t = allocNewNode();
    if (t)
    {
        t->nodekind = StmtK;
        t->kind.stmt = kind;
    }

    return t;
}
bool CSpaceTree::constructTree(CTriContainer *pTriContainer_)
{
	if(pTriContainer_->getCountTries()<1) 
	{
		return false;
	}
	m_pTriContainer = pTriContainer_;
	m_pNodeRoot = allocNewNode( 0 );
	reserveNodeTableEstimate( m_vecNodeTable, m_pTriContainer );
	CreateRoot( m_vecNodeTable, m_pNodeRoot, pTriContainer_->m_vecTris );
	BuildupTree_recurse( m_vecNodeTable, m_pNodeRoot, pTriContainer_->m_vecTris, LIMITTRISPERNODE, 0 );

	return true;
}
Exemple #5
0
void insertAtTail(struct Node** t, struct Node** h, int val)
{   
	/* DIAGRAM OF LINKED LIST
	     /[Tmp]\
	   *[N][T][N1]...[Nn][H]              */
	struct Node* newNode = allocNewNode(val);
	struct Node* tmp = *t;
	
	if (*t == NULL) {
		*t = newNode;
		*h = newNode;
	} else {
		//(*t)->next = tmp;
		*t = newNode;
		newNode->next = tmp;
		tmp->prev = newNode;
	}
}
Exemple #6
0
void insertAtHead(struct Node** h, struct Node** t, int val)
{	
	/* DIAGRAM OF LINKED LIST

	                   /[Tmp]\
	    [N][T][N1]...[Nn][H][N]*           */
	struct Node* newNode = allocNewNode(val);
	struct Node* tmp = *h;
	
	if (*h == NULL) {
		*h = newNode;
		*t = newNode;
	} else {
		//(*h)->prev = tmp;	// Have to get tricky with multiple indirect
		*h = newNode;
		newNode->prev = tmp;
		tmp->next = newNode;
	}		
}
void CSpaceTree::BuildupTree_recurse(	vector<SPACETREENODE*> &vecNodeTable, 
										SPACETREENODE *tnodeParent, 
										const vector<CTri>& vecTris, 
										unsigned int uiLimitTries,
										int iDepthNode )
{
	if(DEPTH_BUILDSPCTREE_MAX<=iDepthNode)
	{
		return;
	}

	vector<SPACETREENODE*>::iterator iterLast;

	if(tnodeParent->_listSTris.size() <= uiLimitTries)
	{
		return;
	}

	int iDepthNodeChld = iDepthNode+1;
	
	for(int iChild = 0;iChild<NUM_CHILDREN;++iChild)
	{	
		set<unsigned int>				listSTriChld_;
		set<unsigned int>::iterator		iter_;
		BV::_BV_AABB_Sphere				bvsphereChld_;
		unsigned int					iSeqTri = 0;
		bool							bintersectedTri = false;

		MakeupBVBoxSpaceTree( tnodeParent->_BVBoxSphere, bvsphereChld_, iChild );

		for(iter_=tnodeParent->_listSTris.begin();iter_!=tnodeParent->_listSTris.end();++iter_)
		{
			iSeqTri = static_cast<unsigned int>(*iter_);
			
			CTri &tri = (CTri&)(vecTris[iSeqTri]);
			
			if(IntersectTriBox( bvsphereChld_, tri ) == INSIDE)
			{
				listSTriChld_.insert( iSeqTri );
				bintersectedTri = true;
			}
		}

		if( true==bintersectedTri )
		{
			// insert New Node
			SPACETREENODE *pNewNodeChld = allocNewNode(iDepthNodeChld);
			bool bNodeChldIsLeaf = (listSTriChld_.size()<=uiLimitTries);
			
			pNewNodeChld->_bLeaf = bNodeChldIsLeaf;
			pNewNodeChld->setBV( bvsphereChld_ );
			pNewNodeChld->setlistTri( listSTriChld_ );	listSTriChld_.clear();		

			vecNodeTable.push_back(pNewNodeChld);
			tnodeParent->_iNodeChildIdx[iChild] = vecNodeTable.size()-1;

			if(false==bNodeChldIsLeaf)
			{
				BuildupTree_recurse( vecNodeTable, pNewNodeChld, vecTris, uiLimitTries, iDepthNodeChld );
			}
		}
	}
}