private Topologic.Wire ByPolylineCurve(PolylineCurve ghPolylineCurve)
{
int numPoints = ghPolylineCurve.PointCount;
if (numPoints < 1)
{
return(null);
}
List <Topologic.Vertex> vertices = new List <Topologic.Vertex>();
List <int> indices = new List <int>();
for (int i = 0; i < numPoints; ++i)
{
Point3d ghPoint = ghPolylineCurve.Point(i);
Topologic.Vertex vertex = ByPoint(ghPoint);
vertices.Add(vertex);
indices.Add(i);
}
if (ghPolylineCurve.IsClosed)
{
//vertices.Add(vertices[0]);
//indices.Add(0);
List <List <int> > listOfIndices = new List <List <int> >();
listOfIndices.Add(indices);
return(Topologic.Topology.ByVerticesIndices(vertices, listOfIndices)[0].Wires[0]);
}
else
{
List <List <int> > listOfIndices = new List <List <int> >();
listOfIndices.Add(indices);
return(Topologic.Topology.ByVerticesIndices(vertices, listOfIndices)[0] as Topologic.Wire);
}
}
//private void ProcessFace(
// Wire wire, ref Brep ghBrep, BrepFace ghBrepFace, BrepLoopType ghBrepLoopType, Rhino.Geometry.Surface ghSurface,
// Dictionary<Edge, Tuple<int, int>> edge2DIndices, Dictionary<Edge, BrepEdge> edgeIndices)
//{
// List<Edge> edges = wire.Edges;
// BrepLoop ghBrepLoop = ghBrep.Loops.Add(ghBrepLoopType, ghBrepFace);
// // 2f.For each loop, add a trim(2D edge)
// List<BrepEdge> ghEdges = new List<BrepEdge>();
// List<Tuple<Curve, int, Curve, int>> gh2DCurves = new List<Tuple<Curve, int, Curve, int>>(); // original curve, index, reverse curve, reverse index
// foreach (Edge edge in edges)
// {
// Tuple<int, int> thisEdge2DIndices = edge2DIndices.
// Where(edgeIndexPair => edgeIndexPair.Key.IsSame(edge)).
// Select(edgeIndexPair => edgeIndexPair.Value).
// FirstOrDefault();
// int thisEdge2DIndex = thisEdge2DIndices.Item1;
// int thisReverseEdge2DIndex = thisEdge2DIndices.Item2;
// Curve ghCurve2D = ghBrep.Curves2D[thisEdge2DIndex];
// Curve ghReverseCurve2D = ghBrep.Curves2D[thisReverseEdge2DIndex];
// gh2DCurves.Add(Tuple.Create(ghCurve2D, thisEdge2DIndex, ghReverseCurve2D, thisReverseEdge2DIndex));
// BrepEdge ghBrepEdge = edgeIndices.
// Where(edgeIndexPair => edgeIndexPair.Key.IsSame(edge)).
// Select(edgeIndexPair => edgeIndexPair.Value).
// FirstOrDefault();
// String ghBrepEdgeLog = "";
// if (!ghBrepEdge.IsValidWithLog(out ghBrepEdgeLog))
// {
// throw new Exception("Fails to create a valid Brep with the following message: " + ghBrepEdgeLog);
// }
// ghEdges.Add(ghBrepEdge);
// }
// for (int currentEntryID = 0; currentEntryID < gh2DCurves.Count; ++currentEntryID)
// {
// int previousEntryID = currentEntryID - 1;
// if (previousEntryID < 0)
// {
// previousEntryID = edges.Count - 1;
// }
// bool isCurrentStartEqualToPreviousStart = gh2DCurves[currentEntryID].Item1.PointAtStart.DistanceTo(
// gh2DCurves[previousEntryID].Item1.PointAtStart) < tolerance;
// bool isCurrentStartEqualToPreviousEnd = gh2DCurves[currentEntryID].Item1.PointAtStart.DistanceTo(
// gh2DCurves[previousEntryID].Item1.PointAtEnd) < tolerance;
// bool isTrimReversed = false;
// if (!isCurrentStartEqualToPreviousStart && !isCurrentStartEqualToPreviousEnd)
// {
// // Reverse trim
// isTrimReversed = true;
// }
// BrepTrim ghBrepTrim = ghBrep.Trims.Add(
// ghEdges[currentEntryID], // 3D edge
// isTrimReversed, // is reversed?
// ghBrepLoop, // 2D loop
// isTrimReversed ? gh2DCurves[currentEntryID].Item4 : gh2DCurves[currentEntryID].Item2); // 2D curve index, use the reversed one if reversed
// ghBrepTrim.IsoStatus = ghSurface.IsIsoparametric(gh2DCurves[currentEntryID].Item1);
// ghBrepTrim.TrimType = BrepTrimType.Boundary;
// ghBrepTrim.SetTolerances(0.0, 0.0);
// String ghBrepTrimLog = "";
// if (!ghBrepTrim.IsValidWithLog(out ghBrepTrimLog))
// {
// throw new Exception("Fails to create a valid BrepTrim with the following message: " + ghBrepTrimLog);
// }
// }
// String brepLoopLog = "";
// if (!ghBrepLoop.IsValidWithLog(out brepLoopLog))
// {
// throw new Exception("Fails to create a valid outer BrepLoop with the following message: " + brepLoopLog);
// }
//}
private Rhino.Geometry.NurbsSurface ToRhinoNurbsSurface(Topologic.NurbsSurface nurbsSurface)
{
int uDegree = nurbsSurface.UDegree;
int vDegree = nurbsSurface.VDegree;
bool isRational = nurbsSurface.IsURational && nurbsSurface.IsVRational;
int uCount = nurbsSurface.NumOfUControlVertices;
int vCount = nurbsSurface.NumOfVControlVertices;
Rhino.Geometry.NurbsSurface ghNurbsSurface = Rhino.Geometry.NurbsSurface.Create(
3,
isRational,
uDegree + 1,
vDegree + 1,
uCount,
vCount
);
int i = 0;
for (int u = 0; u < uCount; ++u)
{
for (int v = 0; v < vCount; ++v)
{
Topologic.Vertex controlVertex = nurbsSurface.ControlVertex(u, v);
ghNurbsSurface.Points.SetPoint(u, v, ToPoint(controlVertex));
++i;
}
}
List <double> uKnots = nurbsSurface.UKnots;
uKnots = uKnots.GetRange(1, uKnots.Count - 2);
for (int u = 0; u < uKnots.Count; u++)
{
ghNurbsSurface.KnotsU[u] = uKnots[u];
}
List <double> vKnots = nurbsSurface.VKnots;
vKnots = vKnots.GetRange(1, vKnots.Count - 2);
for (int v = 0; v < vKnots.Count; v++)
{
ghNurbsSurface.KnotsV[v] = vKnots[v];
}
if (!ghNurbsSurface.IsValid)
{
throw new Exception("A valid surface cannot be created from this Face.");
}
return(ghNurbsSurface);
}
private Topologic.Edge ByLine(Rhino.Geometry.Line ghLine)
{
Topologic.Vertex vertex1 = ByPoint(ghLine.From);
Topologic.Vertex vertex2 = ByPoint(ghLine.To);
return(Topologic.Edge.ByStartVertexEndVertex(vertex1, vertex2));
}