virtual internal bool AddFeature(long n, int l, FeatureEnvelope featEnv)
{
List <FeatureEnvelope> list;
//
// Überprüfen, ob Key schon vorhanden ist
//
if (!_nodes.TryGetValue(n, out list))
{
return(false);
}
if (l < _maxLevels)
{
//
// Kindknoten
//
long c1, c2;
this.ChildNodeNumbers(n, l, out c1, out c2);
List <FeatureEnvelope> cList;
if (_nodes.TryGetValue(c1, out cList) &&
_nodes.TryGetValue(c2, out cList))
{
//
// Bounds des Knoten berechen
//
IEnvelope bound1 = this[c1];
IEnvelope bound2 = this[c2];
if (bound1 != null && bound1.Contains(featEnv.Envelope))
{
return(AddFeature(c1, l + 1, featEnv));
}
else if (bound2 != null && bound2.Contains(featEnv.Envelope))
{
return(AddFeature(c2, l + 1, featEnv));
}
}
}
list.Add(featEnv);
if (l < _maxLevels)
{
if (list.Count > _maxPerNode)
{
SplitNode(n, l);
}
else if (_maxVerticesPerNode > 0 && list.Sum(e => e.VertexCount) > _maxVerticesPerNode)
{
SplitNode(n, l);
}
}
return(true);
}
override internal bool AddFeature(long n, int l, FeatureEnvelope featEnv)
{
n = _searchTree.InsertSINode(featEnv.Envelope);
List <FeatureEnvelope> list;
if (!_nodes.TryGetValue(n, out list))
{
list = new List <FeatureEnvelope>();
_nodes.Add(n, list);
}
list.Add(featEnv);
return(true);
}