/// <summary>
/// 输出Polymesh多边形网格，同时它也是属于face的
/// </summary>
/// <param name="node"></param>
public void OnPolymesh(PolymeshTopology node)
{
//这里非常重要空间几何信息全都在这里
int nPts = node.NumberOfPoints;
int nFacets = node.NumberOfFacets;
VertexBuilder <VertexPosition, VertexTexture1, VertexEmpty>[] vertexs = new VertexBuilder <VertexPosition, VertexTexture1, VertexEmpty> [nPts];
XYZ p;
UV uv;
Transform t = CurrentTransform;
for (int i = 0; i < nPts; i++)
{
p = t.OfPoint(node.GetPoint(i));
uv = node.GetUV(i);
vertexs[i] = new VertexBuilder <VertexPosition, VertexTexture1, VertexEmpty>(new VERTEX((float)(p.Y), (float)(p.Z), (float)(p.X)),
new VertexTexture1(new Vector2((float)uv.U, (float)uv.V)));
}
var mesh = new MeshBuilder <VertexPosition, VertexTexture1>();
var prim = mesh.UsePrimitive(_currentMaterial);
PolymeshFacet f;
for (int i = 0; i < nFacets; i++)
{
f = node.GetFacet(i);
prim.AddTriangle(vertexs[f.V1], vertexs[f.V2], vertexs[f.V3]);
}
_currentMesh.AddMesh(mesh, Matrix4x4.Identity);
}
/// <summary>
/// 从polymesh中获取三角面片信息
/// </summary>
/// <param name="polyMesh"></param>
/// <returns></returns>
private List <TriangleData> GetTriangleDataFromPolymesh(PolymeshTopology polyMesh, bool bIsOrignPosition = false)
{
List <TriangleData> listTri = new List <TriangleData>();
XYZ point;
for (int i = 0; i < polyMesh.NumberOfFacets; i++)
{
point = polyMesh.GetPoint(polyMesh.GetFacet(i).V1);
if (!bIsOrignPosition)
{
point = CurrentTransform.OfPoint(point);
}
PointData pt1 = new PointData(point.X, point.Y, point.Z);
point = polyMesh.GetPoint(polyMesh.GetFacet(i).V2);
if (!bIsOrignPosition)
{
point = CurrentTransform.OfPoint(point);
}
PointData pt2 = new PointData(point.X, point.Y, point.Z);
point = polyMesh.GetPoint(polyMesh.GetFacet(i).V3);
if (!bIsOrignPosition)
{
point = CurrentTransform.OfPoint(point);
}
PointData pt3 = new PointData(point.X, point.Y, point.Z);
listTri.Add(new TriangleData(pt1, pt2, pt3));
}
return(listTri);
}
public void OnPolymesh(PolymeshTopology node)
{
int nPts = node.NumberOfPoints;
int nFacets = node.NumberOfFacets;
Debug.Print($"Polymesh : {nPts} vertices {nFacets} facets");
IList <XYZ> vertices = node.GetPoints();
IList <XYZ> normals = node.GetNormals();
DistributionOfNormals distrib = node.DistributionOfNormals;
VERTEX[] vertexs = new VERTEX[nPts];
XYZ p;
Transform t = CurrentTransform;
for (int i = 0; i < nPts; i++)
{
p = t.OfPoint(node.GetPoint(i));
//vertexs[i] = new VERTEX((float)(p.Y*_foot_to_m), (float)(p.Z*_foot_to_m), (float)(p.X*_foot_to_m));
vertexs[i] = new VERTEX((float)(p.Y), (float)(p.Z), (float)(p.X));
}
var prim = _mesh.UsePrimitive(_material);
PolymeshFacet f;
for (int i = 0; i < nFacets; i++)
{
f = node.GetFacet(i);
prim.AddTriangle(vertexs[f.V1], vertexs[f.V2], vertexs[f.V3]);
}
}
public void OnPolymesh(PolymeshTopology polymesh)
{
CurrentPolymeshIndex++;
WriteXmlGeometryBegin();
WriteXmlGeometrySourcePositions(polymesh);
WriteXmlGeometrySourceNormals(polymesh);
if (polymesh.NumberOfUVs > 0)
{
WriteXmlGeometrySourceMap(polymesh);
}
WriteXmlGeometryVertices();
if (polymesh.NumberOfUVs > 0)
{
WriteXmlGeometryTrianglesWithMap(polymesh);
}
else
{
WriteXmlGeometryTrianglesWithoutMap(polymesh);
}
WriteXmlGeometryEnd();
polymeshToMaterialId.Add(CurrentPolymeshIndex, currentMaterialId);
}
private void WriteXmlGeometrySourcePositions(PolymeshTopology polymesh)
{
streamWriter.Write("<source id=\"geom-" + CurrentPolymeshIndex + "-positions" + "\">\n");
streamWriter.Write("<float_array id=\"geom-" + CurrentPolymeshIndex + "-positions" + "-array" + "\" count=\"" + (polymesh.NumberOfPoints * 3) + "\">\n");
XYZ point;
Transform currentTransform = transformationStack.Peek();
for (int iPoint = 0; iPoint < polymesh.NumberOfPoints; ++iPoint)
{
point = polymesh.GetPoint(iPoint);
point = currentTransform.OfPoint(point);
streamWriter.Write("{0:0.0000} {1:0.0000} {2:0.0000}\n", point.X, point.Y, point.Z);
}
streamWriter.Write("</float_array>\n");
streamWriter.Write("<technique_common>\n");
streamWriter.Write("<accessor source=\"#geom-" + CurrentPolymeshIndex + "-positions" + "-array\"" + " count=\"" + polymesh.NumberOfPoints + "\" stride=\"3\">\n");
streamWriter.Write("<param name=\"X\" type=\"float\"/>\n");
streamWriter.Write("<param name=\"Y\" type=\"float\"/>\n");
streamWriter.Write("<param name=\"Z\" type=\"float\"/>\n");
streamWriter.Write("</accessor>\n");
streamWriter.Write("</technique_common>\n");
streamWriter.Write("</source>\n");
}
/// <summary>
/// This method is called when a tessellated polymesh of a 3d face is being output.
/// </summary>
/// <param name="node">The polymesh node.</param>
public void OnPolymesh(PolymeshTopology node)
{
try
{
var points = node
.GetPoints()
.Select(p => transformations.Peek().OfPoint(p))
.ToArray();
foreach (var facet in node.GetFacets())
{
current.GeometryPerMaterial.AddFace(new[]
{
0,
current.VerticesPerMaterial.AddVertex(points[facet.V1].ToVector3()),
current.VerticesPerMaterial.AddVertex(points[facet.V2].ToVector3()),
current.VerticesPerMaterial.AddVertex(points[facet.V3].ToVector3()),
});
}
}
catch (Exception ex)
{
ProcessException(ex);
}
}
public void OnPolymesh(PolymeshTopology node)
{
num++;
MessageBuffer mb = new MessageBuffer();
mb.add(node.NumberOfPoints);
mb.add(node.NumberOfFacets);
mb.add(node.NumberOfNormals);
mb.add(node.NumberOfUVs);
foreach (Autodesk.Revit.DB.XYZ point in node.GetPoints())
{
mb.add(point);
}
foreach (Autodesk.Revit.DB.XYZ normal in node.GetNormals())
{
mb.add(normal);
}
foreach (Autodesk.Revit.DB.UV uv in node.GetUVs())
{
mb.add((float)uv.U);
mb.add((float)uv.V);
}
foreach (Autodesk.Revit.DB.PolymeshFacet facet in node.GetFacets())
{
mb.add(facet.V1);
mb.add(facet.V2);
mb.add(facet.V3);
}
OpenCOVERPlugin.COVER.Instance.sendMessage(mb.buf, OpenCOVERPlugin.COVER.MessageTypes.NewPolyMesh);
return;
}
public void OnPolymesh(PolymeshTopology polymesh)
{
IList <XYZ> pts = polymesh.GetPoints();
Transform t = CurrentTransform;
pts = pts.Select(p => t.OfPoint(p)).ToList();
var normals = polymesh.GetNormals();
var uvs = polymesh.GetUVs();
int v1, v2, v3;
int v4, v5, v6;
int v7, v8, v9;
int faceindex = 0;
foreach (PolymeshFacet facet in polymesh.GetFacets())
{
v1 = _vertices.AddVertex(new PointInt(pts[facet.V1], _switch_coordinates));
v2 = _vertices.AddVertex(new PointInt(pts[facet.V2], _switch_coordinates));
v3 = _vertices.AddVertex(new PointInt(pts[facet.V3], _switch_coordinates));
face.Add(v1);
face.Add(v2);
face.Add(v3);
v4 = _uvs.AddVertex(new PointDouble(uvs[facet.V1]));
v5 = _uvs.AddVertex(new PointDouble(uvs[facet.V2]));
v6 = _uvs.AddVertex(new PointDouble(uvs[facet.V3]));
face.Add(v4);
face.Add(v5);
face.Add(v6);
if (polymesh.DistributionOfNormals == DistributionOfNormals.AtEachPoint)
{
v7 = _normals.AddVertex(new PointDouble(normals[facet.V1], _switch_coordinates));
v8 = _normals.AddVertex(new PointDouble(normals[facet.V2], _switch_coordinates));
v9 = _normals.AddVertex(new PointDouble(normals[facet.V3], _switch_coordinates));
}
else if (polymesh.DistributionOfNormals == DistributionOfNormals.OnEachFacet)
{
v7 = _normals.AddVertex(new PointDouble(normals[faceindex], _switch_coordinates));
v8 = v7;
v9 = v7;
}
else
{
v7 = _normals.AddVertex(new PointDouble(normals[0], _switch_coordinates));
v8 = v7;
v9 = v7;
}
face.Add(v7);
face.Add(v8);
face.Add(v9);
faceindex++;
}
}
/// <summary>
/// 从polymesh中获取顶点列表
/// </summary>
/// <param name="polymesh"></param>
/// <returns></returns>
private List <PointData> GetVertexesFromPolymesh(PolymeshTopology polymesh)
{
List <PointData> listPoint = new List <PointData>();
for (int i = 0; i < polymesh.NumberOfPoints; i++)
{
listPoint.Add(new PointData(polymesh.GetPoint(i).X, polymesh.GetPoint(i).Y, polymesh.GetPoint(i).Z));
}
return(listPoint);
}
/// <summary>
/// 从polymesh中获取三角形顶点索引数据
/// </summary>
/// <param name="polymesh"></param>
/// <returns></returns>
private List <TriangleIndexData> GetTriangleIndexFromPolymesh(PolymeshTopology polymesh)
{
List <TriangleIndexData> listIndex = new List <TriangleIndexData>();
for (int i = 0; i < polymesh.NumberOfFacets; i++)
{
listIndex.Add(new TriangleIndexData(polymesh.GetFacet(i).V1, polymesh.GetFacet(i).V2, polymesh.GetFacet(i).V3));
}
return(listIndex);
}
public void OnPolymesh(PolymeshTopology polymesh)
{
IList <XYZ> pts = polymesh.GetPoints();
Transform t = CurrentTransform;
pts = pts.Select(p => t.OfPoint(p)).ToList();
var normals = polymesh.GetNormals();
var uvs = polymesh.GetUVs();
GetFaceIndex(polymesh, pts, normals, uvs);
}
/// <summary>
/// Runs for every polymesh being processed. Typically this is a single face
/// of an element's mesh. Here we populate the data into our "_current" variables
/// (geometry and vertices) keyed on the element/material combination (this is important
/// because within a single element, materials can be changed and repeated in unknown order).
/// </summary>
/// <param name="polymesh"></param>
public void OnPolymesh(PolymeshTopology polymesh)
{
string vertex_key = Nodes.CurrentKey + "_" + Materials.CurrentKey;
Debug.WriteLine(" OnPolymesh: " + vertex_key);
// Add new "_current" entries if vertex_key is unique
_currentGeometry.AddOrUpdateCurrent(vertex_key, new GeometryData());
_currentVertices.AddOrUpdateCurrent(vertex_key, new VertexLookupInt());
// Populate current geometry normals data
//if (polymesh.DistributionOfNormals == DistributionOfNormals.AtEachPoint)
//{
// IList<XYZ> norms = polymesh.GetNormals();
// foreach (XYZ norm in norms)
// {
// _currentGeometry.CurrentItem.normals.Add(norm.X);
// _currentGeometry.CurrentItem.normals.Add(norm.Y);
// _currentGeometry.CurrentItem.normals.Add(norm.Z);
// }
//}
// populate current vertices vertex data and current geometry faces data
Transform t = CurrentTransform;
IList <XYZ> pts = polymesh.GetPoints();
pts = pts.Select(p => t.OfPoint(p)).ToList();
IList <PolymeshFacet> facets = polymesh.GetFacets();
foreach (PolymeshFacet facet in facets)
{
int v1 = _currentVertices.CurrentItem.AddVertex(new PointInt(pts[facet.V1], _flipCoords));
int v2 = _currentVertices.CurrentItem.AddVertex(new PointInt(pts[facet.V2], _flipCoords));
int v3 = _currentVertices.CurrentItem.AddVertex(new PointInt(pts[facet.V3], _flipCoords));
_currentGeometry.CurrentItem.faces.Add(v1);
_currentGeometry.CurrentItem.faces.Add(v2);
_currentGeometry.CurrentItem.faces.Add(v3);
//if (polymesh.DistributionOfNormals == DistributionOfNormals.OnePerFace)
//{
// _currentGeometry.CurrentItem.normals.Add(polymesh.GetNormal(0).X);
// _currentGeometry.CurrentItem.normals.Add(polymesh.GetNormal(0).Y);
// _currentGeometry.CurrentItem.normals.Add(polymesh.GetNormal(0).Z);
// _currentGeometry.CurrentItem.normals.Add(polymesh.GetNormal(0).X);
// _currentGeometry.CurrentItem.normals.Add(polymesh.GetNormal(0).Y);
// _currentGeometry.CurrentItem.normals.Add(polymesh.GetNormal(0).Z);
// _currentGeometry.CurrentItem.normals.Add(polymesh.GetNormal(0).X);
// _currentGeometry.CurrentItem.normals.Add(polymesh.GetNormal(0).Y);
// _currentGeometry.CurrentItem.normals.Add(polymesh.GetNormal(0).Z);
//}
}
}
/// <summary>
/// 获取几何信息中每个三角面对应点的顶点坐标/法向坐标/UV坐标的索引
/// 并存入face列表中
/// </summary>
/// <param name="polymesh"></param>
/// <param name="pts"></param>
/// <param name="normals"></param>
/// <param name="uvs"></param>
private void GetFaceIndex(PolymeshTopology polymesh, IList <XYZ> pts, IList <XYZ> normals, IList <UV> uvs)
{
int v1, v2, v3;
int v4, v5, v6;
int v7, v8, v9;
int faceindex = 0;
foreach (PolymeshFacet facet in polymesh.GetFacets())
{
v1 = _vertices.AddVertex(new PointInt(pts[facet.V1], _switch_coordinates));
v2 = _vertices.AddVertex(new PointInt(pts[facet.V2], _switch_coordinates));
v3 = _vertices.AddVertex(new PointInt(pts[facet.V3], _switch_coordinates));
face.Add(v1);
face.Add(v2);
face.Add(v3);
v4 = _uvs.AddVertex(new PointDouble(uvs[facet.V1]));
v5 = _uvs.AddVertex(new PointDouble(uvs[facet.V2]));
v6 = _uvs.AddVertex(new PointDouble(uvs[facet.V3]));
face.Add(v4);
face.Add(v5);
face.Add(v6);
if (polymesh.DistributionOfNormals == DistributionOfNormals.AtEachPoint)
{
v7 = _normals.AddVertex(new PointDouble(normals[facet.V1], _switch_coordinates));
v8 = _normals.AddVertex(new PointDouble(normals[facet.V2], _switch_coordinates));
v9 = _normals.AddVertex(new PointDouble(normals[facet.V3], _switch_coordinates));
}
else if (polymesh.DistributionOfNormals == DistributionOfNormals.OnEachFacet)
{
v7 = _normals.AddVertex(new PointDouble(normals[faceindex], _switch_coordinates));
v8 = v7;
v9 = v7;
}
else
{
v7 = _normals.AddVertex(new PointDouble(normals[0], _switch_coordinates));
v8 = v7;
v9 = v7;
}
face.Add(v7);
face.Add(v8);
face.Add(v9);
faceindex++;
}
}
public void OnPolymesh(PolymeshTopology polymesh)
{
//Debug.WriteLine( string.Format(
// " OnPolymesh: {0} points, {1} facets, {2} normals {3}",
// polymesh.NumberOfPoints,
// polymesh.NumberOfFacets,
// polymesh.NumberOfNormals,
// polymesh.DistributionOfNormals ) );
IList <XYZ> pts = polymesh.GetPoints();
Transform t = CurrentTransform;
pts = pts.Select(p => t.OfPoint(p)).ToList();
if (isOld)
{
}
else if (isNew)
{
_insDict[oldInd1][oldInd2] = pts;
int v1, v2, v3;
foreach (PolymeshFacet facet
in polymesh.GetFacets())
{
//Debug.WriteLine( string.Format(
// " {0}: {1} {2} {3}", i++,
// facet.V1, facet.V2, facet.V3 ) );
v1 = CurrentVerticesPerMaterial.AddVertex(new PointInt(
pts[facet.V1], _switch_coordinates));
v2 = CurrentVerticesPerMaterial.AddVertex(new PointInt(
pts[facet.V2], _switch_coordinates));
v3 = CurrentVerticesPerMaterial.AddVertex(new PointInt(
pts[facet.V3], _switch_coordinates));
CurrentGeometryPerMaterial.data.faces.Add(0);
CurrentGeometryPerMaterial.data.faces.Add(v1);
CurrentGeometryPerMaterial.data.faces.Add(v2);
CurrentGeometryPerMaterial.data.faces.Add(v3);
}
}
}
public void OnPolymesh(PolymeshTopology node)
{
int nPts = node.NumberOfPoints;
int nFacets = node.NumberOfFacets;
DistributionOfNormals distrib
= node.DistributionOfNormals;
Debug.Print(string.Format(
"Polymesh {0} vertices {1} facets",
nPts, nFacets));
int iFacet = 0;
int iPoint = 0;
IList <XYZ> vertices = node.GetPoints();
IList <XYZ> normals = node.GetNormals();
XYZ normal;
foreach (PolymeshFacet triangle in node.GetFacets())
{
// Just grab one normal per facet; ignore the
// three normals per point if they differ.
if (DistributionOfNormals.OnePerFace == distrib)
{
normal = node.GetNormal(0);
}
else if (DistributionOfNormals.OnEachFacet
== distrib)
{
normal = node.GetNormal(iFacet++);
}
else
{
Debug.Assert(DistributionOfNormals
.AtEachPoint == distrib, "what else?");
normal = node.GetNormal(triangle.V1)
+ node.GetNormal(triangle.V2)
+ node.GetNormal(triangle.V3);
normal /= 3.0;
}
StoreTriangle(vertices, triangle, normal);
}
}
public void OnPolymesh(PolymeshTopology inMesh)
{
switch (inMesh.DistributionOfNormals)
{
case DistributionOfNormals.AtEachPoint:
break;
case DistributionOfNormals.OnEachFacet:
break;
case DistributionOfNormals.OnePerFace:
break;
default:
break;
}
m_Exporter.AddGeometry(inMesh.GetPoints(), inMesh.GetFacets(), inMesh.GetNormals(), m_stackTransform.Peek());
}
private void WriteXmlGeometryTrianglesWithMap(PolymeshTopology polymesh)
{
streamWriter.Write("<triangles count=\"" + polymesh.NumberOfFacets + "\"");
if (IsMaterialValid(currentMaterialId))
{
streamWriter.Write(" material=\"material-" + currentMaterialId.ToString() + "\"");
}
streamWriter.Write(">\n");
streamWriter.Write("<input offset=\"0\" semantic=\"VERTEX\" source=\"#geom-" + CurrentPolymeshIndex + "-vertices" + "\"/>\n");
streamWriter.Write("<input offset=\"1\" semantic=\"NORMAL\" source=\"#geom-" + CurrentPolymeshIndex + "-normals" + "\"/>\n");
streamWriter.Write("<input offset=\"2\" semantic=\"TEXCOORD\" source=\"#geom-" + CurrentPolymeshIndex + "-map" + "\" set=\"0\"/>\n");
streamWriter.Write("<p>\n");
PolymeshFacet facet;
switch (polymesh.DistributionOfNormals)
{
case DistributionOfNormals.AtEachPoint:
for (int i = 0; i < polymesh.NumberOfFacets; ++i)
{
facet = polymesh.GetFacet(i);
streamWriter.Write(facet.V1 + " " + facet.V1 + " " + facet.V1 + " " +
facet.V2 + " " + facet.V2 + " " + facet.V2 + " " +
facet.V3 + " " + facet.V3 + " " + facet.V3 + " " +
"\n");
}
break;
case DistributionOfNormals.OnEachFacet:
//TODO : DistributionOfNormals.OnEachFacet
case DistributionOfNormals.OnePerFace:
for (int i = 0; i < polymesh.NumberOfFacets; ++i)
{
facet = polymesh.GetFacet(i);
streamWriter.Write(facet.V1 + " 0 " + facet.V1 + " " +
facet.V2 + " 0 " + facet.V2 + " " +
facet.V3 + " 0 " + facet.V3 + " " +
"\n");
}
break;
}
streamWriter.Write("</p>\n");
streamWriter.Write("</triangles>\n");
}
private void WriteXmlGeometrySourceNormals(PolymeshTopology polymesh)
{
int nNormals = 0;
switch (polymesh.DistributionOfNormals)
{
case DistributionOfNormals.AtEachPoint:
nNormals = polymesh.NumberOfPoints;
break;
case DistributionOfNormals.OnePerFace:
nNormals = 1;
break;
case DistributionOfNormals.OnEachFacet:
//TODO : DistributionOfNormals.OnEachFacet
nNormals = 1;
break;
}
streamWriter.Write("<source id=\"geom-" + CurrentPolymeshIndex + "-normals" + "\">\n");
streamWriter.Write("<float_array id=\"geom-" + CurrentPolymeshIndex + "-normals" + "-array" + "\" count=\"" + (nNormals * 3) + "\">\n");
XYZ point;
Transform currentTransform = transformationStack.Peek();
for (int iNormal = 0; iNormal < nNormals; ++iNormal)
{
point = polymesh.GetNormal(iNormal);
point = currentTransform.OfVector(point);
streamWriter.Write("{0:0.0000} {1:0.0000} {2:0.0000}\n", point.X, point.Y, point.Z);
}
streamWriter.Write("</float_array>\n");
streamWriter.Write("<technique_common>\n");
streamWriter.Write("<accessor source=\"#geom-" + CurrentPolymeshIndex + "-normals" + "-array\"" + " count=\"" + nNormals + "\" stride=\"3\">\n");
streamWriter.Write("<param name=\"X\" type=\"float\"/>\n");
streamWriter.Write("<param name=\"Y\" type=\"float\"/>\n");
streamWriter.Write("<param name=\"Z\" type=\"float\"/>\n");
streamWriter.Write("</accessor>\n");
streamWriter.Write("</technique_common>\n");
streamWriter.Write("</source>\n");
}
private MeshData GetMeshDataFromPolymesh(PolymeshTopology polymesh)
{
var mesh = new MeshData
{
TriangleIndexes = new List <TriangleIndexData>(),
Vertexes = new List <PointData>(),
Normals = new List <PointData>(),
TextureUVs = new List <TextureUV>()
};
for (int i = 0; i < polymesh.NumberOfFacets; i++)
{
var facet = polymesh.GetFacet(i);
mesh.TriangleIndexes.Add(new TriangleIndexData(facet.V1, facet.V2, facet.V3));
}
var oneNormalPerpoint = polymesh.DistributionOfNormals == DistributionOfNormals.AtEachPoint;
for (int i = 0; i < polymesh.NumberOfPoints; i++)
{
mesh.Vertexes.Add(new PointData(polymesh.GetPoint(i).X, polymesh.GetPoint(i).Y, polymesh.GetPoint(i).Z));
if (oneNormalPerpoint)
{
var normal = polymesh.GetNormal(i);
//mesh.Normals.Add(new PointData(normal.X, normal.Y, normal.Z));
}
}
if (polymesh.DistributionOfNormals == DistributionOfNormals.OnePerFace)
{
var normal = polymesh.GetNormal(0);
//mesh.Normals.Add(new PointData(normal.X, normal.Y, normal.Z));
}
for (int i = 0; i < polymesh.NumberOfUVs; i++)
{
var tmpuv = polymesh.GetUV(i);
mesh.TextureUVs.Add(new TextureUV(tmpuv.U, tmpuv.V));
}
return(mesh);
}
private void WriteXmlGeometrySourceMap(PolymeshTopology polymesh)
{
streamWriter.Write("<source id=\"geom-" + CurrentPolymeshIndex + "-map" + "\">\n");
streamWriter.Write("<float_array id=\"geom-" + CurrentPolymeshIndex + "-map" + "-array" + "\" count=\"" + (polymesh.NumberOfUVs * 2) + "\">\n");
UV uv;
for (int iUv = 0; iUv < polymesh.NumberOfUVs; ++iUv)
{
uv = polymesh.GetUV(iUv);
streamWriter.Write("{0:0.0000} {1:0.0000}\n", uv.U, uv.V);
}
streamWriter.Write("</float_array>\n");
streamWriter.Write("<technique_common>\n");
streamWriter.Write("<accessor source=\"#geom-" + CurrentPolymeshIndex + "-map" + "-array\"" + " count=\"" + polymesh.NumberOfPoints + "\" stride=\"2\">\n");
streamWriter.Write("<param name=\"S\" type=\"float\"/>\n");
streamWriter.Write("<param name=\"T\" type=\"float\"/>\n");
streamWriter.Write("</accessor>\n");
streamWriter.Write("</technique_common>\n");
streamWriter.Write("</source>\n");
}
/// <summary>
/// 当输出3d面的镶嵌多边形时，将调用此方法。
/// </summary>
/// <param name="polymesh">表示多边形网格拓扑的节点</param>
void IExportContext.OnPolymesh(PolymeshTopology polymesh)
{
ModelGeometry exportedGeometry = new ModelGeometry
{
Points = polymesh.GetPoints(),
Normals = polymesh.GetNormals(),
Uvs = polymesh.GetUVs(),
Transform = transformationStack.Peek(),
DistributionOfNormals = polymesh.DistributionOfNormals,
Indices = new List <int>(polymesh.GetFacets().Count * 3)
};
if (exportedGeometry.Transform.IsConformal && exportedGeometry.Transform.HasReflection)
{
using (IEnumerator <PolymeshFacet> enumerator = polymesh.GetFacets().GetEnumerator())
{
while (enumerator.MoveNext())
{
PolymeshFacet current = enumerator.Current;
exportedGeometry.Indices.Add(current.V1);
exportedGeometry.Indices.Add(current.V3);
exportedGeometry.Indices.Add(current.V2);
}
goto Fine;
}
}
foreach (PolymeshFacet current2 in polymesh.GetFacets())
{
exportedGeometry.Indices.Add(current2.V1);
exportedGeometry.Indices.Add(current2.V2);
exportedGeometry.Indices.Add(current2.V3);
}
Fine:
if (isElementDoubleSided)
{
exportedGeometry.MakeDoubleSided();
}
documentAndMaterialIdToGeometries[currentDocumentAndMaterialId].Add(exportedGeometry);
}
public void OnPolymesh(PolymeshTopology node)
{
XMesh m = new XMesh();
m.Name = "Mesh" + XData.Objects.Last().Meshs.Count;
Transform t = Transforms.Peek();
for (int i = 0; i < node.NumberOfFacets; i++)
{
PolymeshFacet f = node.GetFacet(i);
m.Triangles.Add(f.V1);
m.Triangles.Add(f.V2);
m.Triangles.Add(f.V3);
}
for (int i = 0; i < node.NumberOfPoints; i++)
{
XYZ p = t.OfPoint(node.GetPoint(i));
m.Vertexs.Add(new XVec3(p.X, p.Y, p.Z));
}
for (int i = 0; i < node.NumberOfNormals; i++)
{
XYZ n = t.OfVector(node.GetNormal(i));
m.Normals.Add(new XVec3(n.X, n.Y, n.Z));
}
for (int i = 0; i < node.NumberOfUVs; i++)
{
UV u = node.GetUV(i);
m.UVs.Add(new XVec2(u.U, u.V));
}
m.MaterialID = matLink[matid];
XData.Objects.Last().Meshs.Add(m);
string log = null;
if (EnableLog)
{
log = "Mesh\n,Name:" + m.Name + "\nVertex:" + m.Vertexs.Count;
}
meshLog.Add(log);
}
public void OnGeometry(PolymeshTopology polymesh)
{
if (currentNodeId == null)
{
throw new Exception();
}
string vertex_key = currentNodeId + "_" + materialDict.CurrentKey;
if (currentGeom.ContainsKey(vertex_key) == false)
{
currentGeom.Add(vertex_key, new GeometryData());
}
// Populate normals from this polymesh
IList <XYZ> norms = polymesh.GetNormals();
foreach (XYZ norm in norms)
{
currentGeom[vertex_key].normals.Add(norm.X);
currentGeom[vertex_key].normals.Add(norm.Y);
currentGeom[vertex_key].normals.Add(norm.Z);
}
// Populate vertex and faces data
IList <XYZ> pts = polymesh.GetPoints();
foreach (PolymeshFacet facet in polymesh.GetFacets())
{
int v1 = currentGeom[vertex_key].vertDictionary.AddVertex(new PointInt(pts[facet.V1], _flipCoords));
int v2 = currentGeom[vertex_key].vertDictionary.AddVertex(new PointInt(pts[facet.V2], _flipCoords));
int v3 = currentGeom[vertex_key].vertDictionary.AddVertex(new PointInt(pts[facet.V3], _flipCoords));
currentGeom[vertex_key].faces.Add(v1);
currentGeom[vertex_key].faces.Add(v2);
currentGeom[vertex_key].faces.Add(v3);
}
}
/// <summary>
/// 输出Polymesh多边形网格，同时它也是属于face的
/// </summary>
/// <param name="node"></param>
public void OnPolymesh(PolymeshTopology node)
{
//把当前ElementId作为对象名写入文件
swObj.Write("o " + currentId.IntegerValue.ToString() + "\n");
swObj.Write("usemtl " + currentMaterialId.IntegerValue.ToString() + "\n");
//取得顶点坐标并进行位置转换
Transform currentTransform = m_TransformationStack.Peek();
IList <XYZ> points = node.GetPoints();
points = points.Select(p => currentTransform.OfPoint(p)).ToList();
//把顶点数据写入文件
foreach (XYZ point in points)
{
swObj.Write("v " + point.X.ToString() + " " + point.Y.ToString() + " " + point.Z.ToString() + "\n");
}
//取得UV坐标
IList <UV> uvs = node.GetUVs();
//把UV数据写入文件
foreach (UV uv in uvs)
{
swObj.Write("vt " + uv.U.ToString() + " " + uv.V.ToString() + " 0.0000\n");
}
//取得面
IList <PolymeshFacet> facets = node.GetFacets();
//把面数据写入文件
foreach (PolymeshFacet facet in facets)
{
swObj.Write("f " + (facet.V1 + 1 + index).ToString() + "/" + (facet.V1 + 1 + index).ToString() + " " + (facet.V2 + 1 + index).ToString() + "/" + (facet.V2 + 1 + index).ToString() + " " + (facet.V3 + 1 + index).ToString() + "/" + (facet.V3 + 1 + index).ToString() + "\n");
}
index += node.NumberOfPoints;
}
public void OnPolymesh(PolymeshTopology inMesh)
{
switch (inMesh.DistributionOfNormals)
{
case DistributionOfNormals.AtEachPoint:
break;
case DistributionOfNormals.OnEachFacet:
break;
case DistributionOfNormals.OnePerFace:
break;
default:
break;
}
m_Exporter.AddGeometry(inMesh.GetPoints(), inMesh.GetFacets(), inMesh.GetNormals(), m_stackTransform.Peek());
}
public void OnPolymesh(PolymeshTopology node)
{
throw new NotImplementedException();
}
public void OnPolymesh(PolymeshTopology node)
{
num++;
MessageBuffer mb = new MessageBuffer();
mb.add(node.NumberOfPoints);
mb.add(node.NumberOfFacets);
mb.add(node.NumberOfNormals);
mb.add(node.NumberOfUVs);
foreach (Autodesk.Revit.DB.XYZ point in node.GetPoints())
{
mb.add(point);
}
foreach (Autodesk.Revit.DB.XYZ normal in node.GetNormals())
{
mb.add(normal);
}
foreach (Autodesk.Revit.DB.UV uv in node.GetUVs())
{
mb.add((float)uv.U);
mb.add((float)uv.V);
}
foreach (Autodesk.Revit.DB.PolymeshFacet facet in node.GetFacets())
{
mb.add(facet.V1);
mb.add(facet.V2);
mb.add(facet.V3);
}
OpenCOVERPlugin.COVER.Instance.sendMessage(mb.buf, OpenCOVERPlugin.COVER.MessageTypes.NewPolyMesh);
return;
}
public void OnPolymesh(PolymeshTopology node)
{
}
public void OnPolymesh(PolymeshTopology node)
{
var pts = node.GetPoints();
var t = tfStack.Peek();
pts = pts.Select(p => t.OfPoint(p)).ToList();
List <XYZ> xyzlist;
List <int> indexlist;
if (currentobject != null)
{
var elem_per_material_uid = $"{currentobject.uuid}-{currentmaterialuid}";
if (XYZs.ContainsKey(elem_per_material_uid))
{
xyzlist = XYZs[elem_per_material_uid];
indexlist = Indexs[elem_per_material_uid];
}
else
{
xyzlist = new List <XYZ>();
XYZs.Add(elem_per_material_uid, xyzlist);
indexlist = new List <int>();
Indexs.Add(elem_per_material_uid, indexlist);
}
foreach (PolymeshFacet facet in node.GetFacets())
{
var v1 = facet.V1;
var pv1 = pts[v1];
var matcheditem = xyzlist.FirstOrDefault(x => x.IsAlmostEqualTo(pv1));
if (matcheditem != null)
{
indexlist.Add(xyzlist.IndexOf(matcheditem));
}
else
{
xyzlist.Add(pv1);
indexlist.Add(xyzlist.Count - 1);
}
var v2 = facet.V2;
var pv2 = pts[v2];
matcheditem = xyzlist.FirstOrDefault(x => x.IsAlmostEqualTo(pv2));
if (matcheditem != null)
{
indexlist.Add(xyzlist.IndexOf(matcheditem));
}
else
{
xyzlist.Add(pv2);
indexlist.Add(xyzlist.Count - 1);
}
var v3 = facet.V3;
var pv3 = pts[v3];
matcheditem = xyzlist.FirstOrDefault(x => x.IsAlmostEqualTo(pv3));
if (matcheditem != null)
{
indexlist.Add(xyzlist.IndexOf(matcheditem));
}
else
{
xyzlist.Add(pv3);
indexlist.Add(xyzlist.Count - 1);
}
}
XYZs[elem_per_material_uid] = xyzlist;
Indexs[elem_per_material_uid] = indexlist;
}
}
public void OnPolymesh(PolymeshTopology node)
{
Transform transform = this.m_TransformationStack.Peek();
int numberOfFacets = node.NumberOfFacets;
int numberOfPoints = node.NumberOfPoints;
int numberOfUVs = node.NumberOfUVs;
int numberOfNormals = node.NumberOfNormals;
this.TotalNBofPoints += numberOfPoints;
this.TotalNBofFacets += numberOfFacets;
int num = this.m_AllViews.VerticeNb / 4;
bool exportProperties = this.m_AllViews.ExportProperties;
if (exportProperties)
{
bool flag = !this.ListElementID01.Contains(this.CurrentElementId.IntegerValue.ToString());
if (flag)
{
this.ListElementID01.Add(this.CurrentElementId.IntegerValue.ToString());
}
}
bool findPatterns = this.m_AllViews.FindPatterns;
if (findPatterns)
{
List <int> list = new List <int>();
bool flag2 = !list.Contains(this.MaterialFaceID);
if (flag2)
{
list.Add(this.MaterialFaceID);
}
bool flag3 = this.key_ElementIDListMatID == null;
if (flag3)
{
bool flag4 = !this.h_ElementIDListMatID.ContainsKey(this.CurrentElementId.IntegerValue);
if (flag4)
{
this.h_ElementIDListMatID.Add(this.CurrentElementId.IntegerValue, list);
this.key_ElementIDListMatID = this.h_ElementIDListMatID.Keys;
}
}
bool flag5 = false;
bool flag6 = this.key_ElementIDListMatID != null;
if (flag6)
{
bool flag7 = this.key_ElementIDListMatID.Count > 0;
if (flag7)
{
foreach (object obj in this.key_ElementIDListMatID)
{
int num2 = (int)obj;
bool flag8 = num2 == this.CurrentElementId.IntegerValue;
if (flag8)
{
flag5 = true;
}
}
bool flag9 = flag5;
if (flag9)
{
foreach (object obj2 in this.key_ElementIDListMatID)
{
int num3 = (int)obj2;
bool flag10 = num3 == this.CurrentElementId.IntegerValue;
if (flag10)
{
List <int> list2 = (List <int>) this.h_ElementIDListMatID[num3];
bool flag11 = !list2.Contains(this.MaterialFaceID);
if (flag11)
{
list2.Add(this.MaterialFaceID);
}
this.h_ElementIDListMatID[num3] = list2;
break;
}
}
}
else
{
bool flag12 = !flag5;
if (flag12)
{
bool flag13 = !this.h_ElementIDListMatID.ContainsKey(this.CurrentElementId.IntegerValue);
if (flag13)
{
this.h_ElementIDListMatID.Add(this.CurrentElementId.IntegerValue, list);
this.key_ElementIDListMatID = this.h_ElementIDListMatID.Keys;
}
}
}
}
}
}
bool maxVerticesPerObj = this.m_AllViews.MaxVerticesPerObj;
if (maxVerticesPerObj)
{
bool flag14 = this.TotalNBofPoints <= num * 4;
if (flag14)
{
bool flag15 = !this.ListElementID_ALL.Contains(this.CurrentElementId.IntegerValue.ToString()) & !this.ListElementID01.Contains(this.CurrentElementId.IntegerValue.ToString());
if (flag15)
{
this.ListElementID01.Add(this.CurrentElementId.IntegerValue.ToString());
this.ListElementID_ALL.Add(this.CurrentElementId.IntegerValue.ToString());
}
}
bool flag16 = this.TotalNBofPoints > num * 4 & this.TotalNBofPoints <= num * 8;
if (flag16)
{
bool flag17 = !this.ListElementID_ALL.Contains(this.CurrentElementId.IntegerValue.ToString()) & !this.ListElementID02.Contains(this.CurrentElementId.IntegerValue.ToString());
if (flag17)
{
this.ListElementID02.Add(this.CurrentElementId.IntegerValue.ToString());
this.ListElementID_ALL.Add(this.CurrentElementId.IntegerValue.ToString());
}
}
bool flag18 = this.TotalNBofPoints > num * 8 & this.TotalNBofPoints <= num * 12;
if (flag18)
{
bool flag19 = !this.ListElementID_ALL.Contains(this.CurrentElementId.IntegerValue.ToString()) & !this.ListElementID03.Contains(this.CurrentElementId.IntegerValue.ToString());
if (flag19)
{
this.ListElementID03.Add(this.CurrentElementId.IntegerValue.ToString());
this.ListElementID_ALL.Add(this.CurrentElementId.IntegerValue.ToString());
}
}
bool flag20 = this.TotalNBofPoints > num * 12 & this.TotalNBofPoints <= num * 16;
if (flag20)
{
bool flag21 = !this.ListElementID_ALL.Contains(this.CurrentElementId.IntegerValue.ToString()) & !this.ListElementID04.Contains(this.CurrentElementId.IntegerValue.ToString());
if (flag21)
{
this.ListElementID04.Add(this.CurrentElementId.IntegerValue.ToString());
this.ListElementID_ALL.Add(this.CurrentElementId.IntegerValue.ToString());
}
}
bool flag22 = this.TotalNBofPoints > num * 16 & this.TotalNBofPoints <= num * 20;
if (flag22)
{
bool flag23 = !this.ListElementID_ALL.Contains(this.CurrentElementId.IntegerValue.ToString()) & !this.ListElementID05.Contains(this.CurrentElementId.IntegerValue.ToString());
if (flag23)
{
this.ListElementID05.Add(this.CurrentElementId.IntegerValue.ToString());
this.ListElementID_ALL.Add(this.CurrentElementId.IntegerValue.ToString());
}
}
bool flag24 = this.TotalNBofPoints > num * 20 & this.TotalNBofPoints <= num * 24;
if (flag24)
{
bool flag25 = !this.ListElementID_ALL.Contains(this.CurrentElementId.IntegerValue.ToString()) & !this.ListElementID06.Contains(this.CurrentElementId.IntegerValue.ToString());
if (flag25)
{
this.ListElementID06.Add(this.CurrentElementId.IntegerValue.ToString());
this.ListElementID_ALL.Add(this.CurrentElementId.IntegerValue.ToString());
}
}
bool flag26 = this.TotalNBofPoints > num * 24 & this.TotalNBofPoints <= num * 28;
if (flag26)
{
bool flag27 = !this.ListElementID_ALL.Contains(this.CurrentElementId.IntegerValue.ToString()) & !this.ListElementID07.Contains(this.CurrentElementId.IntegerValue.ToString());
if (flag27)
{
this.ListElementID07.Add(this.CurrentElementId.IntegerValue.ToString());
this.ListElementID_ALL.Add(this.CurrentElementId.IntegerValue.ToString());
}
}
bool flag28 = this.TotalNBofPoints > num * 28 & this.TotalNBofPoints <= num * 32;
if (flag28)
{
bool flag29 = !this.ListElementID_ALL.Contains(this.CurrentElementId.IntegerValue.ToString()) & !this.ListElementID08.Contains(this.CurrentElementId.IntegerValue.ToString());
if (flag29)
{
this.ListElementID08.Add(this.CurrentElementId.IntegerValue.ToString());
this.ListElementID_ALL.Add(this.CurrentElementId.IntegerValue.ToString());
}
}
bool flag30 = this.TotalNBofPoints > num * 32 & this.TotalNBofPoints <= num * 36;
if (flag30)
{
bool flag31 = !this.ListElementID_ALL.Contains(this.CurrentElementId.IntegerValue.ToString()) & !this.ListElementID09.Contains(this.CurrentElementId.IntegerValue.ToString());
if (flag31)
{
this.ListElementID09.Add(this.CurrentElementId.IntegerValue.ToString());
this.ListElementID_ALL.Add(this.CurrentElementId.IntegerValue.ToString());
}
}
bool flag32 = this.TotalNBofPoints > num * 36 & this.TotalNBofPoints <= num * 40;
if (flag32)
{
bool flag33 = !this.ListElementID_ALL.Contains(this.CurrentElementId.IntegerValue.ToString()) & !this.ListElementID10.Contains(this.CurrentElementId.IntegerValue.ToString());
if (flag33)
{
this.ListElementID10.Add(this.CurrentElementId.IntegerValue.ToString());
this.ListElementID_ALL.Add(this.CurrentElementId.IntegerValue.ToString());
}
}
}
}
void IExportContext.OnPolymesh(PolymeshTopology node)
{
throw new NotImplementedException();
}
public void OnPolymesh(PolymeshTopology polymesh)
{
Debug.WriteLine(string.Format(
" OnPolymesh: {0} points, {1} facets, {2} normals {3}",
polymesh.NumberOfPoints,
polymesh.NumberOfFacets,
polymesh.NumberOfNormals,
polymesh.DistributionOfNormals));
IList <XYZ> pts = polymesh.GetPoints();
IList <XYZ> normals = polymesh.GetNormals();
Transform t = CurrentTransform;
int nVertices = pts.Count;
List <int> vertexCoordsMm = new List <int>(
3 * nVertices);
foreach (XYZ p in pts)
{
// Translate the entire element geometry
// to the bounding box midpoint and scale
// to metric millimetres.
XYZ q = t.OfPoint(p) - _pmid;
vertexCoordsMm.Add(Util.FootToMm(p.X));
vertexCoordsMm.Add(Util.FootToMm(p.Y));
vertexCoordsMm.Add(Util.FootToMm(p.Z));
}
int i = 0;
int[] triangleIndices = new int[3];
XYZ[] triangleCorners = new XYZ[3];
foreach (PolymeshFacet facet
in polymesh.GetFacets())
{
Debug.WriteLine(string.Format(
" {0}: {1} {2} {3}", i++,
facet.V1, facet.V2, facet.V3));
IList <int> vertices = facet.GetVertices();
for (int j = 0; j < 3; ++j)
{
int k = vertices[j];
triangleIndices[j] = k;
triangleCorners[j] = pts[k];
}
// Calculate constant triangle facet normal.
XYZ v = triangleCorners[1]
- triangleCorners[0];
XYZ w = triangleCorners[2]
- triangleCorners[0];
XYZ triangleNormal = v
.CrossProduct(w)
.Normalize();
for (int j = 0; j < 3; ++j)
{
int nFaceVertices = _faceVertices.Count;
Debug.Assert(nFaceVertices.Equals(_faceNormals.Count),
"expected equal number of face vertex and normal coordinates");
_faceIndices.Add(nFaceVertices / 3);
int i3 = triangleIndices[j] * 3;
// Rotate the X, Y and Z directions,
// since the Z direction points upward
// in Revit as opposed to sideways or
// outwards or forwards in WebGL.
_faceVertices.Add(vertexCoordsMm[i3 + 1]);
_faceVertices.Add(vertexCoordsMm[i3 + 2]);
_faceVertices.Add(vertexCoordsMm[i3]);
if (CmdElemGeom.RetainCurvedSurfaceFacets)
{
_faceNormals.Add(triangleNormal.Y);
_faceNormals.Add(triangleNormal.Z);
_faceNormals.Add(triangleNormal.X);
}
else
{
XYZ normal = normals[triangleIndices[j]];
_faceNormals.Add(normal.Y);
_faceNormals.Add(normal.Z);
_faceNormals.Add(normal.X);
}
}
}
}