int WriteVertices(OutputMesh mesh)
{
int numberOfVertices = subSet == null?curvedPolygonsNet.GetNumberOfVertices() :
subSet.vertices.Length;
Vector3[] vertices = curvedPolygonsNet.GetVertices();
Vector3[] normals = curvedPolygonsNet.GetNormals();
Vector3[] uvs = curvedPolygonsNet.GetUv();
Vector3[][] properties = curvedPolygonsNet.GetProperties3();
int countProperties = mesh.CountProperties();
//Vector3[] tangents = curvedPolygonsNet.GetTangents();
//bool doTangents = tangents != null;
bool doUvs = uvs != null && mesh.DoUseUVs();
bool doNormals = normals != null && mesh.DoNormals();
for (int i = 0; i < numberOfVertices; i++)
{
int index = subSet == null ? i : subSet.vertices[i];
mesh.SetVertex(index, vertices[index]);
if (doUvs)
{
mesh.SetUV(index, uvs[index]);
}
if (doNormals)
{
mesh.SetNormal(index, normals[index]);
}
for (int k = 0; k < countProperties; k++)
{
mesh.SetProperty3(index, k, properties[k][index]);
}
}
return(numberOfVertices);
}
public void EvaluateEdge(CurvedPolygonsNet net, OutputMesh mesh, CPNGuide guide,
short edgeLength, short[] edge, int edgeIndex, short[] edgeHints,
float[] edgeWeights, int[] edgeProfile, int realEdgeIndex)
{
bool isLinear = edgeLength == 2;
bool uvAvailable = net.GetUv() != null && net.GetUv().Length != 0 && mesh.DoUseUVs();
int countP = mesh.CountProperties();
short[] tessellationDegrees = CPNGuide_loqs;
if (isLinear)
{
FillBufferWithLine(guide.vBuffer, net.GetVertices(), edge, edgeIndex);
if (uvAvailable)
{
FillBufferWithLine(guide.uvsBuffer, net.GetUv(), edge, edgeIndex);
}
guide.PreparePropertiesBuffers(countP);
for (int k = 0; k < countP; k++)
{
FillBufferWithLine(guide.propertiesBuffer[k], net.GetProperties3()[k], edge, edgeIndex);
}
}
else
{
FillBuffer(guide.vBuffer, net.GetVertices(), edge, edgeIndex);
if (uvAvailable)
{
FillBuffer(guide.uvsBuffer, net.GetUv(), edge, edgeIndex);
}
guide.PreparePropertiesBuffers(countP);
for (int k = 0; k < countP; k++)
{
FillBuffer(guide.propertiesBuffer[k], net.GetProperties3()[k], edge, edgeIndex);
}
}
//if (tgAvailable) //Avoid tangents for now
// FillBuffer(linear, polyline.tgsBuffer, net.GetTangents(), edge, edgeIndex);
int handleIndex = (realEdgeIndex) << 1;
guide.w2 = edgeWeights[handleIndex + 0];
guide.w3 = edgeWeights[handleIndex + 1];
guide.edgeNormal = net.GetNormals()[net.GetNumberOfVertices() + realEdgeIndex];
guide.firstNormal = net.GetNormals()[edge[edgeIndex + 0]];
guide.lastNormal = net.GetNormals()[edge[edgeIndex + (isLinear? 1 : 3)]];
//float r = edgeRots == null ? 0 : edgeRots[edgeProfileIndex];
//float r3 = edgeRots == null ? 0 : edgeRots[handleIndex + 1];
int N1 = 1;
int N2 = 1;
if (!isLinear)
{
N1 = tessellationDegrees[edgeHints[handleIndex + 0]];
N2 = tessellationDegrees[edgeHints[handleIndex + 1]];
}
int N = guide.GetN();
float c = (2.0f * N1 * N2) / (N * (N1 + N2));
guide.tessellationStepA = c / N1;
guide.tessellationStepB = c * 0.5f * (N1 - N2) / (N1 * N2 * N * 1.0f);
int edgeInternal = edgeProfile[((realEdgeIndex) << 2) + 2];
float step = 1.0f / N;
for (int j = 1; j < N; j++)
{
int index = edgeInternal + j - 1;
EvalAt(j * step, guide);
mesh.SetVertex(index, EvalVertex(guide));
if (uvAvailable)
{
mesh.SetUV(index, EvalUV(guide));
}
for (int k = 0; k < countP; k++)
{
mesh.SetProperty3(index, k, EvalProperty(guide, k));
}
}
}