/// <summary>
/// Create collections of groups sharing same Material ID. Also ensures collection's MaterialID is valid!
/// </summary>
/// <param name="groups"></param>
/// <returns></returns>
List <SamplePointsMaterialGroupCollection> getMaterialIDGroups(CGVolume volume)
{
var matCollections = new Dictionary <int, SamplePointsMaterialGroupCollection>();
SamplePointsMaterialGroupCollection col;
for (int g = 0; g < volume.CrossMaterialGroups.Count; g++)
{
int matID = Mathf.Min(volume.CrossMaterialGroups[g].MaterialID, MaterialCount - 1);
if (!matCollections.TryGetValue(matID, out col))
{
col = new SamplePointsMaterialGroupCollection();
col.MaterialID = matID;
matCollections.Add(matID, col);
}
col.Add(volume.CrossMaterialGroups[g]);
}
var res = new List <SamplePointsMaterialGroupCollection>();
foreach (var item in matCollections.Values)
{
item.CalculateAspectCorrection(volume, MaterialSetttings[item.MaterialID]);
res.Add(item);
}
return(res);
}
void build(CGVMesh vmesh, CGVolume vol, IntRegion subset)
{
// Because each Material ID forms a submesh
// Do we need to calculate localU?
if (GenerateUV)
{
System.Array.Resize <Vector2>(ref vmesh.UV, vmesh.Count);
}
// Prepare Submeshes
prepareSubMeshes(vmesh, groupsByMatID, subset.Length, ref m_Material);
//prepareSubMeshes(vmesh, groupsByMatID, vol.Count - 1, ref m_Material);
SamplePointsMaterialGroupCollection col;
SamplePointsMaterialGroup grp;
int vtIdx = 0;
int[] triIdx = new int[groupsByMatID.Count]; // triIdx for each submesh
// for all sample segments (except the last) along the path, create Triangles to the next segment
for (int sample = subset.From; sample < subset.To; sample++)
{
// for each submesh (collection)
for (int subMeshIdx = 0; subMeshIdx < groupsByMatID.Count; subMeshIdx++)
{
col = groupsByMatID[subMeshIdx];
// create UV and triangles for all groups in submesh
for (int g = 0; g < col.Count; g++)
{
grp = col[g];
if (GenerateUV)
{
createMaterialGroupUV(ref vmesh, ref vol, ref grp, col.MaterialID, col.AspectCorrection, sample, vtIdx);
}
for (int p = 0; p < grp.Patches.Count; p++)
{
createPatchTriangles(ref vmesh.SubMeshes[subMeshIdx].Triangles, ref triIdx[subMeshIdx], vtIdx + grp.Patches[p].Start, grp.Patches[p].Count, vol.CrossSize, ReverseTriOrder);
}
}
}
vtIdx += vol.CrossSize;
}
// UV for last path segment
if (GenerateUV)
{
// for each submesh (collection)
for (int subMeshIdx = 0; subMeshIdx < groupsByMatID.Count; subMeshIdx++)
{
col = groupsByMatID[subMeshIdx];
// create triangles
for (int g = 0; g < col.Count; g++)
{
grp = col[g];
createMaterialGroupUV(ref vmesh, ref vol, ref grp, col.MaterialID, col.AspectCorrection, subset.To, vtIdx);
}
}
}
}
public void GetLengths(CGVolume volume, out float worldLength, out float uLength)
{
worldLength = 0;
for (int v = StartVertex; v < EndVertex; v++)
{
worldLength += (volume.Vertex[v + 1] - volume.Vertex[v]).magnitude;
}
uLength = volume.CrossMap[EndVertex] - volume.CrossMap[StartVertex];
}
/*! \cond PRIVATE */
Matrix4x4 getMat(CGVolume vol, int index, bool inverse)
{
if (inverse)
{
var Q = Quaternion.LookRotation(vol.Direction[index], vol.Normal[index]);
return(Matrix4x4.TRS(vol.Position[index], Q, Vector3.one));
}
else
{
var Q = Quaternion.Inverse(Quaternion.LookRotation(vol.Direction[index], vol.Normal[index]));
return(Matrix4x4.TRS(-(Q * vol.Position[index]), Q, Vector3.one));
}
}
/// <summary>
/// trs vertices to eliminate Z and eleminate duplicates
/// </summary>
ContourVertex[] make2DSegment(CGVolume vol, int index)
{
Matrix4x4 m = getMat(vol, index, false);
int idx = vol.GetSegmentIndex(index);
ContourVertex[] res = new ContourVertex[vol.CrossSize];
for (int i = 0; i < vol.CrossSize; i++)
{
res[i] = m.MultiplyPoint(vol.Vertex[idx + i]).ContourVertex();
}
return(res);
}
public void CalculateAspectCorrection(CGVolume volume, CGMaterialSettingsEx matSettings)
{
float totalLength = 0;
float totalULength = 0;
float l, u;
for (int g = 0; g < Count; g++)
{
this[g].GetLengths(volume, out l, out u);
totalLength += l;
totalULength += u;
}
AspectCorrection = volume.Length / (totalLength / totalULength);
/*
* float crossLength = volume.GetCrossLength(0);
* for (int g = 0; g < Count; g++)
* {
* // Calculate local U
* if (matSettings.LocalU)
* this[g].CalculateLocalINTERNAL(volume);
* // Aspect correction
* this[g].AspectCorrectionU = 1;
* this[g].AspectCorrectionV = 1;
* switch (matSettings.KeepAspect)
* {
* case CGKeepAspectMode.ScaleU:
* if (matSettings.LocalU)
* this[g].AspectCorrectionU = this[g].LocalLength / volume.Length;
* else
* this[g].AspectCorrectionU = crossLength / volume.Length;
* break;
* case CGKeepAspectMode.ScaleV:
* if (matSettings.LocalU)
* this[g].AspectCorrectionV = volume.Length / this[g].LocalLength;
* else
* this[g].AspectCorrectionV = volume.Length / crossLength;
* break;
* }
* }
*
*
*/
}
public void CalculateAspectCorrection(CGVolume volume, CGMaterialSettingsEx matSettings)
{
if (matSettings.KeepAspect == CGKeepAspectMode.Off)
{
AspectCorrection = 1;
}
else
{
float totalLength = 0;
float totalULength = 0;
float l, u;
for (int g = 0; g < Count; g++)
{
this[g].GetLengths(volume, out l, out u);
totalLength += l;
totalULength += u;
}
AspectCorrection = volume.Length / (totalLength / totalULength);
}
}
// OPTIMIZE: Store array of U values and just copy them
void createMaterialGroupUV(ref CGVMesh vmesh, ref CGVolume vol, ref SamplePointsMaterialGroup grp, int matIndex, float grpAspectCorrection, int sample, int baseVertex)
{
var mat = m_MaterialSettings[matIndex];
float v = mat.UVOffset.y + vol.F[sample] * mat.UVScale.y * grpAspectCorrection;
float u;
int hi = grp.EndVertex;
for (int c = grp.StartVertex; c <= hi; c++)
{
u = mat.UVOffset.x + vol.CrossMap[c] * mat.UVScale.x;
if (mat.SwapUV)
{
vmesh.UV[baseVertex + c] = new Vector2(v, u);
}
else
{
vmesh.UV[baseVertex + c] = new Vector2(u, v);
}
}
}
/// <summary>
/// trs vertices to eliminate Z and eleminate duplicates
/// </summary>
Vector3[] make2DSegment(CGVolume vol, int index)
{
Matrix4x4 m = getMat(vol, index, false);
Vector3[] vertices = vol.GetSegmentVertices(index);
HashSet <Vector3> hash = new HashSet <Vector3>();
List <Vector3> res = new List <Vector3>(vertices.Length);
Vector3 v;
Vector3 l = new Vector3(float.MaxValue, float.MaxValue, float.MaxValue);
for (int i = 0; i < vertices.Length; i++)
{
v = m.MultiplyPoint(vertices[i]);
if ((v - l).sqrMagnitude > 0.001f && hash.Add(v))
{
res.Add(v);
}
l = v;
}
return(res.ToArray());
}
Matrix4x4 getMat(CGVolume vol, int index, bool inverse)
{
if (inverse)
{
var Q = Quaternion.LookRotation(vol.Direction[index], vol.Normal[index]);
return Matrix4x4.TRS(vol.Position[index], Q, Vector3.one);
}
else
{
var Q = Quaternion.Inverse(Quaternion.LookRotation(vol.Direction[index], vol.Normal[index]));
return Matrix4x4.TRS(-(Q * vol.Position[index]), Q, Vector3.one);
}
}
// OPTIMIZE: Store array of U values and just copy them
void createMaterialGroupUV(ref CGVMesh vmesh, ref CGVolume vol, ref SamplePointsMaterialGroup grp, int matIndex, float grpAspectCorrection, int sample, int baseVertex)
{
var mat = m_MaterialSettings[matIndex];
float v = mat.UVOffset.y + vol.F[sample] * mat.UVScale.y * grpAspectCorrection;
float u;
int hi = grp.EndVertex;
for (int c = grp.StartVertex; c <= hi; c++)
{
u = mat.UVOffset.x + vol.CrossMap[c] * mat.UVScale.x;
if (mat.SwapUV)
vmesh.UV[baseVertex+c] = new Vector2(v, u);
else
vmesh.UV[baseVertex+c] = new Vector2(u, v);
}
}
/// <summary>
/// Create collections of groups sharing same Material ID. Also ensures collection's MaterialID is valid!
/// </summary>
/// <param name="groups"></param>
/// <returns></returns>
List<SamplePointsMaterialGroupCollection> getMaterialIDGroups(CGVolume volume)
{
var matCollections = new Dictionary<int, SamplePointsMaterialGroupCollection>();
SamplePointsMaterialGroupCollection col;
for (int g = 0; g < volume.CrossMaterialGroups.Count;g++)
{
int matID = Mathf.Min(volume.CrossMaterialGroups[g].MaterialID,MaterialCount-1);
if (!matCollections.TryGetValue(matID,out col))
{
col = new SamplePointsMaterialGroupCollection();
col.MaterialID = matID;
matCollections.Add(matID,col);
}
col.Add(volume.CrossMaterialGroups[g]);
}
var res = new List<SamplePointsMaterialGroupCollection>();
foreach (var item in matCollections.Values)
{
item.CalculateAspectCorrection(volume, MaterialSetttings[item.MaterialID]);
res.Add(item);
}
return res;
}
/*! \endcond */
#endregion
#region ### Public Methods ###
public override void Refresh()
{
base.Refresh();
CGVolume vol = InVolume.GetData <CGVolume>();
var holes = InVolumeHoles.GetAllData <CGVolume>();
if (vol)
{
bool genStart = (StartCap == CGYesNoAuto.Yes || (StartCap == CGYesNoAuto.Auto && !vol.Seamless));
bool genEnd = (EndCap == CGYesNoAuto.Yes || (EndCap == CGYesNoAuto.Auto && !vol.Seamless));
if (!genStart && !genEnd)
{
OutVMesh.SetData(null);
return;
}
var vmesh = new CGVMesh();
Vector3[] vtStart = new Vector3[0];
Vector3[] vtEnd = new Vector3[0];
Polygon pOuter;
vmesh.AddSubMesh(new CGVSubMesh());
CGVSubMesh submesh = vmesh.SubMeshes[0];
Vector3[] points;
if (genStart)
{
#region --- Start Cap ---
points = make2DSegment(vol, 0);
if (points.Length < 3)
{
OutVMesh.SetData(null);
UIMessages.Add("Cross has <3 Vertices: Can't create Caps!");
return;
}
pOuter = new Polygon(points);
for (int h = 0; h < holes.Count; h++)
{
points = make2DSegment(holes[h], 0);
if (points.Length < 3)
{
OutVMesh.SetData(null);
UIMessages.Add("Hole Cross has <3 Vertices: Can't create Caps!");
return;
}
pOuter.AddHole(new Polygon(points));
}
try
{
P2T.Triangulate(pOuter);
}
catch (System.Exception e)
{
Debug.LogException(e);
OutVMesh.SetData(null);
return;
}
submesh.Material = StartMaterial;
pOuter.GetResults(out vtStart, out submesh.Triangles, ReverseTriOrder);
vmesh.Vertex = applyMat(vtStart, getMat(vol, 0, true));
if (GenerateUV)
{
vmesh.UV = new Vector2[vtStart.Length];
applyUV(vtStart, ref vmesh.UV, 0, vtStart.Length, pOuter.Bounds.Bounds, StartMaterialSettings);
}
#endregion
}
if (genEnd)
{
#region --- End Cap ---
points = make2DSegment(vol, vol.Count - 1);
if (points.Length < 3)
{
OutVMesh.SetData(null);
UIMessages.Add("Cross has <3 Vertices: Can't create Caps!");
return;
}
pOuter = new Polygon(points);
for (int h = 0; h < holes.Count; h++)
{
points = make2DSegment(holes[h], holes[h].Count - 1);
if (points.Length < 3)
{
OutVMesh.SetData(null);
UIMessages.Add("Hole Cross has <3 Vertices: Can't create Caps!");
return;
}
pOuter.AddHole(new Polygon(points));
}
try
{
P2T.Triangulate(pOuter);
}
catch (System.Exception e)
{
Debug.LogException(e);
OutVMesh.SetData(null);
return;
}
int[] tris;
pOuter.GetResults(out vtEnd, out tris, !ReverseTriOrder, vtStart.Length);
vmesh.Vertex = vmesh.Vertex.AddRange <Vector3>(applyMat(vtEnd, getMat(vol, vol.Count - 1, true)));
if (!CloneStartCap && StartMaterial != EndMaterial)
{
vmesh.AddSubMesh(new CGVSubMesh(tris, EndMaterial));
}
else
{
submesh.Material = StartMaterial;
submesh.Triangles = submesh.Triangles.AddRange <int>(tris);
}
if (GenerateUV)
{
System.Array.Resize <Vector2>(ref vmesh.UV, vmesh.UV.Length + vtEnd.Length);
applyUV(vtEnd, ref vmesh.UV, vtStart.Length, vtEnd.Length, pOuter.Bounds.Bounds, (CloneStartCap) ? StartMaterialSettings : EndMaterialSettings);
}
#endregion
}
OutVMesh.SetData(vmesh);
}
}
/*! \cond PRIVATE */
void prepare(CGVolume vol)
{
// We have groups (different MaterialID) of patches (e.g. by Hard Edges).
// Create Collection of groups sharing the same material ID
groupsByMatID = getMaterialIDGroups(vol);
}
/// <summary>
/// trs vertices to eliminate Z and eleminate duplicates
/// </summary>
Vector3[] make2DSegment(CGVolume vol, int index)
{
Matrix4x4 m = getMat(vol, index, false);
Vector3[] vertices = vol.GetSegmentVertices(index);
HashSet<Vector3> hash = new HashSet<Vector3>();
List<Vector3> res = new List<Vector3>(vertices.Length);
Vector3 v;
Vector3 l = new Vector3(float.MaxValue, float.MaxValue, float.MaxValue);
for (int i = 0; i < vertices.Length; i++)
{
v = m.MultiplyPoint(vertices[i]);
if ((v - l).sqrMagnitude > 0.001f && hash.Add(v))
res.Add(v);
l = v;
}
return res.ToArray();
}
void build(CGVMesh vmesh, CGVolume vol, IntRegion subset)
{
// Because each Material ID forms a submesh
// Do we need to calculate localU?
if (GenerateUV)
{
System.Array.Resize<Vector2>(ref vmesh.UV, vmesh.Count);
}
// Prepare Submeshes
prepareSubMeshes(vmesh, groupsByMatID, subset.Length, ref m_Material);
//prepareSubMeshes(vmesh, groupsByMatID, vol.Count - 1, ref m_Material);
SamplePointsMaterialGroupCollection col;
SamplePointsMaterialGroup grp;
int vtIdx = 0;
int[] triIdx = new int[groupsByMatID.Count]; // triIdx for each submesh
// for all sample segments (except the last) along the path, create Triangles to the next segment
for (int sample = subset.From; sample < subset.To; sample++)
{
// for each submesh (collection)
for (int subMeshIdx = 0; subMeshIdx < groupsByMatID.Count; subMeshIdx++)
{
col = groupsByMatID[subMeshIdx];
// create UV and triangles for all groups in submesh
for (int g = 0; g < col.Count; g++)
{
grp = col[g];
if (GenerateUV)
createMaterialGroupUV(ref vmesh, ref vol, ref grp, col.MaterialID, col.AspectCorrection, sample, vtIdx);
for (int p = 0; p < grp.Patches.Count; p++)
createPatchTriangles(ref vmesh.SubMeshes[subMeshIdx].Triangles, ref triIdx[subMeshIdx], vtIdx+grp.Patches[p].Start, grp.Patches[p].Count, vol.CrossSize, ReverseTriOrder);
}
}
vtIdx += vol.CrossSize;
}
// UV for last path segment
if (GenerateUV)
{
// for each submesh (collection)
for (int subMeshIdx = 0; subMeshIdx < groupsByMatID.Count; subMeshIdx++)
{
col = groupsByMatID[subMeshIdx];
// create triangles
for (int g = 0; g < col.Count; g++)
{
grp = col[g];
createMaterialGroupUV(ref vmesh, ref vol, ref grp, col.MaterialID, col.AspectCorrection, subset.To, vtIdx);
}
}
}
}
/*! \endcond */
#endregion
#region ### Public Methods ###
public override void Refresh()
{
base.Refresh();
if (Length == 0)
{
Reset();
}
else
{
var req = new List <CGDataRequestParameter>();
req.Add(new CGDataRequestRasterization(this.From, this.Length, CGUtility.CalculateSamplePointsCacheSize(Resolution, InPath.SourceSlot().OnRequestPathModule.PathLength *this.Length), AngleThreshold, (Optimize) ? CGDataRequestRasterization.ModeEnum.Optimized : CGDataRequestRasterization.ModeEnum.Even));
var path = InPath.GetData <CGPath>(req.ToArray());
req.Clear();
req.Add(new CGDataRequestRasterization(this.CrossFrom, this.CrossLength, CGUtility.CalculateSamplePointsCacheSize(CrossResolution, InCross.SourceSlot().OnRequestPathModule.PathLength *this.CrossLength), CrossAngleThreshold, (CrossOptimize) ? CGDataRequestRasterization.ModeEnum.Optimized : CGDataRequestRasterization.ModeEnum.Even));
if (CrossIncludeControlPoints || CrossHardEdges || CrossMaterials)
{
req.Add(new CGDataRequestMetaCGOptions(CrossHardEdges, CrossMaterials, CrossIncludeControlPoints, CrossExtendedUV));
}
var cross = InCross.GetData <CGShape>(req.ToArray());
if (!path || !cross || path.Count == 0 || cross.Count == 0)
{
OutVolume.ClearData();
OutVolumeHollow.ClearData();
return;
}
var vol = CGVolume.Get(OutVolume.GetData <CGVolume>(), path, cross);
var volHollow = (OutVolumeHollow.IsLinked) ? CGVolume.Get(OutVolumeHollow.GetData <CGVolume>(), path, cross) : null;
PathSamples = path.Count;
CrossSamples = cross.Count;
CrossGroups = cross.MaterialGroups.Count;
CrossPosition = vol.Position[0];
CrossRotation = Quaternion.LookRotation(vol.Direction[0], vol.Normal[0]);
Vector3 baseScale = (ScaleUniform) ? new Vector3(ScaleX, ScaleX, 1) : new Vector3(ScaleX, ScaleY, 1);
Vector3 scl = baseScale;
int vtIdx = 0;
float[] scaleFArray = (ScaleReference == CGReferenceMode.Source) ? path.SourceF : path.F;
Matrix4x4 mat;
Matrix4x4 matHollow;
Quaternion R;
int crossNormalMul = (CrossReverseNormals) ? -1 : 1;
int hollowNormalMul = (HollowReverseNormals) ? -1 : 1;
for (int sample = 0; sample < path.Count; sample++)
{
R = Quaternion.LookRotation(path.Direction[sample], path.Normal[sample]);
getScaleInternal(scaleFArray[sample], baseScale, ref scl);
mat = Matrix4x4.TRS(path.Position[sample], R, scl);
if (volHollow == null)
{
for (int c = 0; c < cross.Count; c++)
{
vol.Vertex[vtIdx] = mat.MultiplyPoint(cross.Position[c]);
vol.VertexNormal[vtIdx++] = R * cross.Normal[c] * crossNormalMul;
}
}
else
{
matHollow = Matrix4x4.TRS(path.Position[sample], R, scl * (1 - HollowInset));
for (int c = 0; c < cross.Count; c++)
{
vol.Vertex[vtIdx] = mat.MultiplyPoint(cross.Position[c]);
vol.VertexNormal[vtIdx] = R * cross.Normal[c];
volHollow.Vertex[vtIdx] = matHollow.MultiplyPoint(cross.Position[c]);
volHollow.VertexNormal[vtIdx] = vol.VertexNormal[vtIdx++] * hollowNormalMul;
}
}
}
switch (CrossShiftMode)
{
case CrossShiftModeEnum.ByOrientation:
// shift CrossF to match Path Orientation
Vector2 hit;
float frag;
for (int i = 0; i < cross.Count - 1; i++)
{
if (DTMath.RayLineSegmentIntersection(vol.Position[0], vol.VertexNormal[0], vol.Vertex[i], vol.Vertex[i + 1], out hit, out frag))
{
vol.CrossFShift = DTMath.SnapPrecision(vol.CrossF[i] + (vol.CrossF[i + 1] - vol.CrossF[i]) * frag, 2);
break;
}
}
if (vol.CrossClosed && DTMath.RayLineSegmentIntersection(vol.Position[0], vol.VertexNormal[0], vol.Vertex[cross.Count - 1], vol.Vertex[0], out hit, out frag))
{
vol.CrossFShift = DTMath.SnapPrecision(vol.CrossF[cross.Count - 1] + (vol.CrossF[0] - vol.CrossF[cross.Count - 1]) * frag, 2);
}
break;
case CrossShiftModeEnum.Custom:
vol.CrossFShift = CrossShiftValue;
break;
default:
vol.CrossFShift = 0;
break;
}
if (volHollow != null)
{
volHollow.CrossFShift = vol.CrossFShift;
}
OutVolume.SetData(vol);
OutVolumeHollow.SetData(volHollow);
}
}
/*! \endcond */
#endregion
#region ### Public Methods ###
public override void Refresh()
{
base.Refresh();
CGVolume vol = InVolume.GetData <CGVolume>();
var holes = InVolumeHoles.GetAllData <CGVolume>();
if (vol)
{
bool genStart = (StartCap == CGYesNoAuto.Yes || (StartCap == CGYesNoAuto.Auto && !vol.Seamless));
bool genEnd = (EndCap == CGYesNoAuto.Yes || (EndCap == CGYesNoAuto.Auto && !vol.Seamless));
if (!genStart && !genEnd)
{
OutVMesh.SetData(null);
return;
}
var vmesh = new CGVMesh();
Vector3[] vtStart = new Vector3[0];
Vector3[] vtEnd = new Vector3[0];
vmesh.AddSubMesh(new CGVSubMesh());
CGVSubMesh submesh = vmesh.SubMeshes[0];
if (genStart)
{
#region --- Start Cap ---
var tess = new Tess();
tess.UsePooling = true;
tess.AddContour(make2DSegment(vol, 0));
for (int h = 0; h < holes.Count; h++)
{
if (holes[h].Count < 3)
{
OutVMesh.SetData(null);
UIMessages.Add("Hole Cross has <3 Vertices: Can't create Caps!");
return;
}
tess.AddContour(make2DSegment(holes[h], 0));
}
tess.Tessellate(WindingRule.EvenOdd, ElementType.Polygons, 3);
vtStart = UnityLibTessUtility.FromContourVertex(tess.Vertices);
Bounds b;
vmesh.Vertex = applyMat(vtStart, getMat(vol, 0, true), out b);
submesh.Material = StartMaterial;
submesh.Triangles = tess.Elements;
if (ReverseTriOrder)
{
flipTris(ref submesh.Triangles, 0, submesh.Triangles.Length);
}
if (GenerateUV)
{
vmesh.UV = new Vector2[vtStart.Length];
applyUV(vtStart, ref vmesh.UV, 0, vtStart.Length, StartMaterialSettings, b);
}
#endregion
}
if (genEnd)
{
#region --- End Cap ---
var tess = new Tess();
tess.UsePooling = true;
tess.AddContour(make2DSegment(vol, 0));
for (int h = 0; h < holes.Count; h++)
{
if (holes[h].Count < 3)
{
OutVMesh.SetData(null);
UIMessages.Add("Hole Cross has <3 Vertices: Can't create Caps!");
return;
}
tess.AddContour(make2DSegment(holes[h], 0));
}
tess.Tessellate(WindingRule.EvenOdd, ElementType.Polygons, 3);
vtEnd = UnityLibTessUtility.FromContourVertex(tess.Vertices);
Bounds b;
int l = vmesh.Vertex.Length;
vmesh.Vertex = vmesh.Vertex.AddRange <Vector3>(applyMat(vtEnd, getMat(vol, vol.Count - 1, true), out b));
int[] tris = tess.Elements;
if (!ReverseTriOrder)
{
flipTris(ref tris, 0, tris.Length);
}
for (int i = 0; i < tris.Length; i++)
{
tris[i] += l;
}
if (!CloneStartCap && StartMaterial != EndMaterial)
{
vmesh.AddSubMesh(new CGVSubMesh(tris, EndMaterial));
}
else
{
submesh.Material = StartMaterial;
submesh.Triangles = submesh.Triangles.AddRange <int>(tris);
}
if (GenerateUV)
{
System.Array.Resize <Vector2>(ref vmesh.UV, vmesh.UV.Length + vtEnd.Length);
applyUV(vtEnd, ref vmesh.UV, vtStart.Length, vtEnd.Length, (CloneStartCap) ? StartMaterialSettings : EndMaterialSettings, b);
}
#endregion
}
OutVMesh.SetData(vmesh);
}
}
public override void OnModuleSceneDebugGUI()
{
base.OnModuleSceneDebugGUI();
CGVolume vol = Target.InData.GetData <CGVolume>();
if (vol)
{
Handles.matrix = Target.Generator.transform.localToWorldMatrix;
if (Target.ShowPathSamples)
{
CGEditorUtility.SceneGUIPlot(vol.Position, 0.1f, Target.PathColor);
if (Target.ShowIndex)
{
var labels = Enumerable.Range(0, vol.Count).Select(i => i.ToString()).ToArray <string>();
CGEditorUtility.SceneGUILabels(vol.Position, labels, Color.black, Vector2.zero);
}
}
if (Target.ShowCrossSamples)
{
int vtLo = Target.LimitCross.From * vol.CrossSize;
int vtHi = vtLo + vol.CrossSize;
if (!Target.LimitCross.SimpleValue)
{
vtLo = Target.LimitCross.Low * vol.CrossSize;
vtHi = (Target.LimitCross.High + 1) * vol.CrossSize;
}
vtLo = Mathf.Clamp(vtLo, 0, vol.VertexCount);
vtHi = Mathf.Clamp(vtHi, vtLo, vol.VertexCount);
var range = vol.Vertex.SubArray <Vector3>(vtLo, vtHi - vtLo);
CGEditorUtility.SceneGUIPlot(range, 0.1f, Color.white);
if (Target.ShowIndex)
{
var labels = Enumerable.Range(vtLo, vtHi).Select(i => i.ToString()).ToArray <string>();
CGEditorUtility.SceneGUILabels(range, labels, Color.black, Vector2.zero);
}
if (Target.ShowMap)
{
var labels = Enumerable.Range(vtLo, vtHi).Select(i => DTMath.SnapPrecision(vol.CrossMap[i], 3).ToString()).ToArray <string>();
CGEditorUtility.SceneGUILabels(range, labels, new Color(1, 0, 1), new Vector2(10, 20));
}
if (Target.ShowNormals)
{
DTHandles.PushHandlesColor(Target.NormalColor);
for (int i = vtLo; i < vtHi; i++)
{
Handles.DrawLine(vol.Vertex[i], vol.Vertex[i] + vol.VertexNormal[i] * 2);
}
DTHandles.PopHandlesColor();
}
}
if (Target.Interpolate)
{
Vector3 pos;
Vector3 tan;
Vector3 up;
vol.InterpolateVolume(Target.InterpolatePathF, Target.InterpolateCrossF, out pos, out tan, out up);
Handles.ConeCap(0, pos, Quaternion.LookRotation(up, tan), 1f);
}
Handles.matrix = Matrix4x4.identity;
}
}
/*! \cond PRIVATE */
void prepare(CGVolume vol)
{
// We have groups (different MaterialID) of patches (e.g. by Hard Edges).
// Create Collection of groups sharing the same material ID
groupsByMatID = getMaterialIDGroups(vol);
}
