public Shape addPointRel(std_vector<Vector2> pointList) {
if (mPoints.Count == 0) {
mPoints.AddRange(pointList.ToArray());
}
else {
Vector2 refVector = mPoints[mPoints.size() - 1];
foreach (var it in pointList) {
addPoint(it + refVector);
}
}
return this;
}
/// Gets a non-modifiable reference to vertices
//
//ORIGINAL LINE: const List<Vertex>& getVertices() const
public Vertex[] _getVertices()
{
return(mVertices.ToArray());
}
//void Triangulator::_recursiveTriangulatePolygon(const DelaunaySegment& cuttingSeg, std::vector<int> inputPoints, DelaunayTriangleBuffer& tbuffer, const PointList& pointList) const
void _recursiveTriangulatePolygon(DelaunaySegment cuttingSeg, std_vector <int> inputPoints, DelaunayTriangleBuffer tbuffer, PointList pointList)
{
if (inputPoints.size() == 0)
{
return;
}
if (inputPoints.size() == 1)
{
Triangle t2 = new Triangle(pointList);
//t.setVertices(cuttingSeg.i1, cuttingSeg.i2, inputPoints.begin());
t2.setVertices(cuttingSeg.i1, cuttingSeg.i2, inputPoints.front());
t2.makeDirectIfNeeded();
tbuffer.push_back(t2);
return;
}
// Find a point which, when associated with seg.i1 and seg.i2, builds a Delaunay triangle
//std::vector<int>::iterator currentPoint = inputPoints.begin();
int currentPoint_pos = inputPoints.begin();
int currentPoint = inputPoints.front();
bool found = false;
while (!found)
{
bool isDelaunay = true;
//Circle c=new Circle(pointList[*currentPoint], pointList[cuttingSeg.i1], pointList[cuttingSeg.i2]);
Circle c = new Circle(pointList[currentPoint], pointList[cuttingSeg.i1], pointList[cuttingSeg.i2]);
//for (std::vector<int>::iterator it = inputPoints.begin(); it!=inputPoints.end(); ++it)
int idx = -1;
foreach (var it in inputPoints)
{
idx++;
//if (c.isPointInside(pointList[*it]) && (*it != *currentPoint))
if (c.isPointInside(pointList[it]) && (it != currentPoint))
{
isDelaunay = false;
currentPoint = it;
currentPoint_pos = idx;
break;
}
}
if (isDelaunay)
{
found = true;
}
}
// Insert current triangle
Triangle t = new Triangle(pointList);
//t.setVertices(*currentPoint, cuttingSeg.i1, cuttingSeg.i2);
t.setVertices(currentPoint, cuttingSeg.i1, cuttingSeg.i2);
t.makeDirectIfNeeded();
tbuffer.push_back(t);
// Recurse
//DelaunaySegment newCut1=new DelaunaySegment(cuttingSeg.i1, *currentPoint);
//DelaunaySegment newCut2=new DelaunaySegment(cuttingSeg.i2, *currentPoint);
DelaunaySegment newCut1 = new DelaunaySegment(cuttingSeg.i1, currentPoint);
DelaunaySegment newCut2 = new DelaunaySegment(cuttingSeg.i2, currentPoint);
//std_vector<int> set1=new std_vector<int>(inputPoints.begin(), currentPoint);
//std_vector<int> set2=new std_vector<int>(currentPoint+1, inputPoints.end());
std_vector <int> set1 = new std_vector <int>();
set1.assign(inputPoints.ToArray(), inputPoints.begin(), currentPoint_pos);
std_vector <int> set2 = new std_vector <int>();
set2.assign(inputPoints.ToArray(), currentPoint_pos + 1, inputPoints.end());
if (!set1.empty())
{
_recursiveTriangulatePolygon(newCut1, set1, tbuffer, pointList);
}
if (!set2.empty())
{
_recursiveTriangulatePolygon(newCut2, set2, tbuffer, pointList);
}
}
/// Gets a non-modifiable reference to indices
//
//ORIGINAL LINE: const List<int>& getIndices() const
public int[] _getIndices()
{
return(mIndices.ToArray());
}
public Vector3[] getPoints()
{
return(mPoints.ToArray());
}
