/// <summary>
/// Construct a Revit FilledRegion element by Curves
/// </summary>
/// <param name="view">View to place filled region on</param>
/// <param name="boundary">Boundary curves</param>
/// <param name="regionType">Region Type</param>
/// <returns></returns>
public static FilledRegion ByCurves(Revit.Elements.Views.View view, IEnumerable <Autodesk.DesignScript.Geometry.Curve> boundary, FilledRegionType regionType)
{
Autodesk.Revit.DB.FilledRegionType type = regionType.InternalRevitElement;
CurveLoop loop = new CurveLoop();
foreach (Autodesk.DesignScript.Geometry.Curve curve in boundary)
{
loop.Append(curve.ToRevitType());
}
if (loop.IsOpen())
{
throw new Exception(Properties.Resources.CurveLoopNotClosed);
}
Autodesk.Revit.DB.View revitView = (Autodesk.Revit.DB.View)view.InternalElement;
if (!view.IsAnnotationView())
{
throw new Exception(Properties.Resources.ViewDoesNotSupportAnnotations);
}
return(new FilledRegion(revitView, type.Id, new List <CurveLoop>()
{
loop
}));
}
public Polycurve CurveLoopToSpeckle(CurveLoop loop, string units = null)
{
var polycurve = new Polycurve();
polycurve.units = units ?? ModelUnits;
polycurve.closed = !loop.IsOpen();
polycurve.length = units == Units.None ? loop.GetExactLength() : ScaleToSpeckle(loop.GetExactLength());
polycurve.segments.AddRange(loop.Select(x => CurveToSpeckle(x)));
return(polycurve);
}
public Polycurve CurveLoopToSpeckle(CurveLoop loop)
{
var polycurve = new Polycurve();
polycurve.units = ModelUnits;
polycurve.closed = !loop.IsOpen();
polycurve.length = ScaleToSpeckle(loop.GetExactLength());
polycurve.segments.AddRange(loop.Select(x => CurveToSpeckle(x)));
return(polycurve);
}
public void GetAreaProfile()
{
try
{
SpatialElementBoundaryOptions opt = new SpatialElementBoundaryOptions();
opt.StoreFreeBoundaryFaces = true;
opt.SpatialElementBoundaryLocation = SpatialElementBoundaryLocation.Center;
IList <IList <BoundarySegment> > boundaryListList = m_area.GetBoundarySegments(opt);
List <CurveLoop> profiles = new List <CurveLoop>();
foreach (IList <BoundarySegment> boundaryList in boundaryListList)
{
List <Curve> curveList = new List <Curve>();
foreach (BoundarySegment segment in boundaryList)
{
#if RELEASE2015
curveList.Add(segment.Curve);
#else
curveList.Add(segment.GetCurve());
#endif
}
CurveLoop curveLoop = CurveLoop.Create(curveList);
if (!curveLoop.IsOpen())
{
areaProfile.Add(curveLoop);
}
}
if (areaProfile.Count > 0)
{
CalculateCenterPoint();
}
}
catch (Exception ex)
{
string message = ex.Message;
}
}
/// <summary>
/// Get the curve from the Axis representation of the given IfcProduct, transformed to the current local coordinate system.
/// </summary>
/// <param name="creator">The IfcProduct that may or may not contain a valid axis curve.</param>
/// <param name="lcs">The local coordinate system.</param>
/// <returns>The axis curve, if found, and valid.</returns>
/// <remarks>In this case, we only allow bounded lines and arcs to be valid axis curves, as per IFC2x3 convention.
/// The Curve may be contained as either a single Curve in the IFCCurve representation item, or it could be an
/// open CurveLoop with one item.</remarks>
private Curve GetAxisCurve(IFCProduct creator, Transform lcs)
{
// We need an axis curve to clip the extrusion profiles; if we can't get one, fail
IFCProductRepresentation productRepresentation = creator.ProductRepresentation;
if (productRepresentation == null)
{
return(null);
}
IList <IFCRepresentation> representations = productRepresentation.Representations;
if (representations == null)
{
return(null);
}
foreach (IFCRepresentation representation in representations)
{
// Go through the list of representations for this product, to find the Axis representation.
if (representation == null || representation.Identifier != IFCRepresentationIdentifier.Axis)
{
continue;
}
IList <IFCRepresentationItem> items = representation.RepresentationItems;
if (items == null)
{
continue;
}
// Go through the list of representation items in the Axis representation, to look for the IfcCurve.
foreach (IFCRepresentationItem item in items)
{
if (item is IFCCurve)
{
// We will accept either a bounded Curve of type Line or Arc,
// or an open CurveLoop with one curve that satisfies the same condition.
IFCCurve ifcCurve = item as IFCCurve;
Curve axisCurve = ifcCurve.Curve;
if (axisCurve == null)
{
CurveLoop axisCurveLoop = ifcCurve.CurveLoop;
if (axisCurveLoop != null && axisCurveLoop.IsOpen() && axisCurveLoop.Count() == 1)
{
axisCurve = axisCurveLoop.First();
if (!(axisCurve is Line || axisCurve is Arc))
{
axisCurve = null;
}
}
}
if (axisCurve != null)
{
return(axisCurve.CreateTransformed(lcs));
}
}
}
}
return(null);
}
/// <returns>true if the curve loop is clockwise, false otherwise.</returns>
private static bool SafeIsCurveLoopClockwise(CurveLoop curveLoop, XYZ dir)
{
if (curveLoop == null)
return false;
if (curveLoop.IsOpen())
return false;
if ((curveLoop.Count() == 1) && !(curveLoop.First().IsBound))
return false;
return !curveLoop.IsCounterclockwise(dir);
}
/// <summary>
/// Determines if a curveloop can be exported as an I-Shape profile.
/// </summary>
/// <param name="exporterIFC">The exporter.</param>
/// <param name="profileName">The name of the profile.</param>
/// <param name="curveLoop">The curve loop.</param>
/// <param name="origPlane">The plane of the loop.</param>
/// <param name="projDir">The projection direction.</param>
/// <returns>The IfcIShapeProfileDef, or null if not possible.</returns>
/// <remarks>This routine works with I-shaped curveloops projected onto origPlane, in either orientation;
/// it does not work with H-shaped curveloops.</remarks>
private static IFCAnyHandle CreateIShapeProfileDefIfPossible(ExporterIFC exporterIFC, string profileName, CurveLoop curveLoop, Plane origPlane,
XYZ projDir)
{
IFCFile file = exporterIFC.GetFile();
if (curveLoop.IsOpen())
return null;
if (curveLoop.Count() != 12 && curveLoop.Count() != 16)
return null;
// All curves must be lines, except for 4 optional fillets; get direction vectors and start points.
XYZ xDir = origPlane.XVec;
XYZ yDir = origPlane.YVec;
// The list of vertices, in order. startVertex below is the upper-right hand vertex, in UV-space.
IList<UV> vertices = new List<UV>();
// The directions in UV of the line segments. directions[ii] is the direction of the line segment starting with vertex[ii].
IList<UV> directions = new List<UV>();
// The lengths in UV of the line segments. lengths[ii] is the length of the line segment starting with vertex[ii].
IList<double> lengths = new List<double>();
// turnsCCW[ii] is true if directions[ii+1] is clockwise relative to directions[ii] in UV-space.
IList<bool> turnsCCW = new List<bool>();
IList<Arc> fillets = new List<Arc>();
IList<int> filletPositions = new List<int>();
int idx = 0;
int startVertex = -1;
int startFillet = -1;
UV upperRight = null;
double lowerBoundU = 1e+30;
double upperBoundU = -1e+30;
foreach (Curve curve in curveLoop)
{
if (!(curve is Line))
{
if (!(curve is Arc))
return null;
fillets.Add(curve as Arc);
filletPositions.Add(idx); // share the index of the next line segment.
continue;
}
Line line = curve as Line;
XYZ point = line.GetEndPoint(0);
UV pointProjUV = GeometryUtil.ProjectPointToPlane(origPlane, projDir, point);
if (pointProjUV == null)
return null;
pointProjUV = UnitUtil.ScaleLength(pointProjUV);
if ((upperRight == null) || ((pointProjUV.U > upperRight.U - MathUtil.Eps()) && (pointProjUV.V > upperRight.V - MathUtil.Eps())))
{
upperRight = pointProjUV;
startVertex = idx;
startFillet = filletPositions.Count;
}
if (pointProjUV.U < lowerBoundU)
lowerBoundU = pointProjUV.U;
if (pointProjUV.U > upperBoundU)
upperBoundU = pointProjUV.U;
vertices.Add(pointProjUV);
XYZ direction3d = line.Direction;
UV direction = new UV(direction3d.DotProduct(xDir), direction3d.DotProduct(yDir));
lengths.Add(UnitUtil.ScaleLength(line.Length));
bool zeroU = MathUtil.IsAlmostZero(direction.U);
bool zeroV = MathUtil.IsAlmostZero(direction.V);
if (zeroU && zeroV)
return null;
// Accept only non-rotated I-Shapes.
if (!zeroU && !zeroV)
return null;
direction.Normalize();
if (idx > 0)
{
if (!MathUtil.IsAlmostZero(directions[idx - 1].DotProduct(direction)))
return null;
turnsCCW.Add(directions[idx - 1].CrossProduct(direction) > 0);
}
directions.Add(direction);
idx++;
}
if (directions.Count != 12)
return null;
if (!MathUtil.IsAlmostZero(directions[11].DotProduct(directions[0])))
return null;
turnsCCW.Add(directions[11].CrossProduct(directions[0]) > 0);
bool firstTurnIsCCW = turnsCCW[startVertex];
// Check proper turning of lines.
// The orientation of the turns should be such that 8 match the original orientation, and 4 go in the opposite direction.
// The opposite ones are:
// For I-Shape:
// if the first turn is clockwise (i.e., in -Y direction): 1,2,7,8.
// if the first turn is counterclockwise (i.e., in the -X direction): 2,3,8,9.
// For H-Shape:
// if the first turn is clockwise (i.e., in -Y direction): 2,3,8,9.
// if the first turn is counterclockwise (i.e., in the -X direction): 1,2,7,8.
int iShapeCCWOffset = firstTurnIsCCW ? 1 : 0;
int hShapeCWOffset = firstTurnIsCCW ? 0 : 1;
bool isIShape = true;
bool isHShape = false;
for (int ii = 0; ii < 12 && isIShape; ii++)
{
int currOffset = 12 + (startVertex - iShapeCCWOffset);
int currIdx = (ii + currOffset) % 12;
if (currIdx == 1 || currIdx == 2 || currIdx == 7 || currIdx == 8)
{
if (firstTurnIsCCW == turnsCCW[ii])
isIShape = false;
}
else
{
if (firstTurnIsCCW == !turnsCCW[ii])
isIShape = false;
}
}
if (!isIShape)
{
// Check if it is orientated like an H - if neither I nor H, fail.
isHShape = true;
for (int ii = 0; ii < 12 && isHShape; ii++)
{
int currOffset = 12 + (startVertex - hShapeCWOffset);
int currIdx = (ii + currOffset) % 12;
if (currIdx == 1 || currIdx == 2 || currIdx == 7 || currIdx == 8)
{
if (firstTurnIsCCW == turnsCCW[ii])
return null;
}
else
{
if (firstTurnIsCCW == !turnsCCW[ii])
return null;
}
}
}
// Check that the lengths of parallel and symmetric line segments are equal.
double overallWidth = 0.0;
double overallDepth = 0.0;
double flangeThickness = 0.0;
double webThickness = 0.0;
// I-Shape:
// CCW pairs:(0,6), (1,5), (1,7), (1,11), (2,4), (2,8), (2,10), (3, 9)
// CW pairs: (11,5), (0,4), (0,6), (0,10), (1,3), (1,7), (1,9), (2, 8)
// H-Shape is reversed.
int cwPairOffset = (firstTurnIsCCW == isIShape) ? 0 : 11;
overallWidth = lengths[(startVertex + cwPairOffset) % 12];
flangeThickness = lengths[(startVertex + 1 + cwPairOffset) % 12];
if (isIShape)
{
if (firstTurnIsCCW)
{
overallDepth = vertices[startVertex].V - vertices[(startVertex + 7) % 12].V;
webThickness = vertices[(startVertex + 9) % 12].U - vertices[(startVertex + 3) % 12].U;
}
else
{
overallDepth = vertices[startVertex].V - vertices[(startVertex + 5) % 12].V;
webThickness = vertices[(startVertex + 2) % 12].U - vertices[(startVertex + 8) % 12].U;
}
}
else
{
if (!firstTurnIsCCW)
{
overallDepth = vertices[startVertex].U - vertices[(startVertex + 7) % 12].U;
webThickness = vertices[(startVertex + 9) % 12].V - vertices[(startVertex + 3) % 12].V;
}
else
{
overallDepth = vertices[startVertex].U - vertices[(startVertex + 5) % 12].U;
webThickness = vertices[(startVertex + 2) % 12].V - vertices[(startVertex + 8) % 12].V;
}
}
if (!MathUtil.IsAlmostEqual(overallWidth, lengths[(startVertex + 6 + cwPairOffset) % 12]))
return null;
if (!MathUtil.IsAlmostEqual(flangeThickness, lengths[(startVertex + 5 + cwPairOffset) % 12]) ||
!MathUtil.IsAlmostEqual(flangeThickness, lengths[(startVertex + 7 + cwPairOffset) % 12]) ||
!MathUtil.IsAlmostEqual(flangeThickness, lengths[(startVertex + 11 + cwPairOffset) % 12]))
return null;
double innerTopLeftLength = lengths[(startVertex + 2 + cwPairOffset) % 12];
if (!MathUtil.IsAlmostEqual(innerTopLeftLength, lengths[(startVertex + 4 + cwPairOffset) % 12]) ||
!MathUtil.IsAlmostEqual(innerTopLeftLength, lengths[(startVertex + 8 + cwPairOffset) % 12]) ||
!MathUtil.IsAlmostEqual(innerTopLeftLength, lengths[(startVertex + 10 + cwPairOffset) % 12]))
return null;
double iShaftLength = lengths[(startVertex + 3 + cwPairOffset) % 12];
if (!MathUtil.IsAlmostEqual(iShaftLength, lengths[(startVertex + 9 + cwPairOffset) % 12]))
return null;
// Check fillet validity.
int numFillets = fillets.Count();
double? filletRadius = null;
if (numFillets != 0)
{
if (numFillets != 4)
return null;
// startFillet can have any value from 0 to 4; if it is 4, need to reset it to 0.
// The fillet positions relative to the upper right hand corner are:
// For I-Shape:
// if the first turn is clockwise (i.e., in -Y direction): 2,3,8,9.
// if the first turn is counterclockwise (i.e., in the -X direction): 3,4,9,10.
// For H-Shape:
// if the first turn is clockwise (i.e., in -Y direction): 3,4,9,10.
// if the first turn is counterclockwise (i.e., in the -X direction): 2,3,8,9.
int filletOffset = (isIShape == firstTurnIsCCW) ? 1 : 0;
if (filletPositions[startFillet % 4] != ((2 + filletOffset + startVertex) % 12) ||
filletPositions[(startFillet + 1) % 4] != ((3 + filletOffset + startVertex) % 12) ||
filletPositions[(startFillet + 2) % 4] != ((8 + filletOffset + startVertex) % 12) ||
filletPositions[(startFillet + 3) % 4] != ((9 + filletOffset + startVertex) % 12))
return null;
double tmpFilletRadius = fillets[0].Radius;
for (int ii = 1; ii < 4; ii++)
{
if (!MathUtil.IsAlmostEqual(tmpFilletRadius, fillets[ii].Radius))
return null;
}
if (!MathUtil.IsAlmostZero(tmpFilletRadius))
filletRadius = UnitUtil.ScaleLength(tmpFilletRadius);
}
XYZ planeNorm = origPlane.Normal;
for (int ii = 0; ii < numFillets; ii++)
{
bool filletIsCCW = (fillets[ii].Normal.DotProduct(planeNorm) > MathUtil.Eps());
if (filletIsCCW == firstTurnIsCCW)
return null;
}
if (MathUtil.IsAlmostZero(overallWidth) || MathUtil.IsAlmostZero(overallDepth) ||
MathUtil.IsAlmostZero(flangeThickness) || MathUtil.IsAlmostZero(webThickness))
return null;
// We have an I-Shape Profile!
IList<double> newCtr = new List<double>();
newCtr.Add((vertices[0].U + vertices[6].U) / 2);
newCtr.Add((vertices[0].V + vertices[6].V) / 2);
IFCAnyHandle location = IFCInstanceExporter.CreateCartesianPoint(file, newCtr);
IList<double> refDir = new List<double>();
if (isIShape)
{
refDir.Add(1.0);
refDir.Add(0.0);
}
else
{
refDir.Add(0.0);
refDir.Add(1.0);
}
IFCAnyHandle refDirectionOpt = ExporterUtil.CreateDirection(file, refDir);
IFCAnyHandle positionHnd = IFCInstanceExporter.CreateAxis2Placement2D(file, location, null, refDirectionOpt);
return IFCInstanceExporter.CreateIShapeProfileDef(file, IFCProfileType.Area, profileName, positionHnd,
overallWidth, overallDepth, webThickness, flangeThickness, filletRadius);
}
private static IFCAnyHandle CreateCircleProfileDefIfPossible(ExporterIFC exporterIFC, string profileName, CurveLoop curveLoop, Plane origPlane,
XYZ projDir)
{
IFCFile file = exporterIFC.GetFile();
if (curveLoop.IsOpen())
return null;
XYZ origPlaneNorm = origPlane.Normal;
Plane curveLoopPlane = null;
try
{
curveLoopPlane = curveLoop.GetPlane();
}
catch
{
return null;
}
XYZ curveLoopPlaneNorm = curveLoopPlane.Normal;
if (!MathUtil.IsAlmostEqual(Math.Abs(origPlaneNorm.DotProduct(curveLoopPlaneNorm)), 1.0))
return null;
IList<Arc> arcs = new List<Arc>();
foreach (Curve curve in curveLoop)
{
if (!(curve is Arc))
return null;
arcs.Add(curve as Arc);
}
int numArcs = arcs.Count;
if (numArcs == 0)
return null;
double radius = arcs[0].Radius;
XYZ ctr = arcs[0].Center;
for (int ii = 1; ii < numArcs; ii++)
{
XYZ newCenter = arcs[ii].Center;
if (!newCenter.IsAlmostEqualTo(ctr))
return null;
}
double scale = exporterIFC.LinearScale;
radius *= scale;
XYZ xDir = origPlane.XVec;
XYZ yDir = origPlane.YVec;
XYZ orig = origPlane.Origin;
ctr -= orig;
IList<double> newCtr = new List<double>();
newCtr.Add(xDir.DotProduct(ctr) * scale);
newCtr.Add(yDir.DotProduct(ctr) * scale);
IFCAnyHandle location = IFCInstanceExporter.CreateCartesianPoint(file, newCtr);
IList<double> refDir = new List<double>();
refDir.Add(1.0);
refDir.Add(0.0);
IFCAnyHandle refDirectionOpt = ExporterUtil.CreateDirection(file, refDir);
IFCAnyHandle defPosition = IFCInstanceExporter.CreateAxis2Placement2D(file, location, null, refDirectionOpt);
return IFCInstanceExporter.CreateCircleProfileDef(file, IFCProfileType.Area, profileName, defPosition, radius);
}
/// <summary>
/// 获取一组连续封闭的模型线
/// </summary>
/// <returns></returns>
/// <remarks></remarks>
private CurveLoop GetLoopedCurve(out List <ModelCurve> modelCurves)
{
Document Doc = this._uiDoc.Document;
//
IList <Reference> boundaries = Selector.SelectGeneralElements <ModelCurve>(_uiDoc, out modelCurves, "选择一组模型线");
//
if (boundaries == null || !boundaries.Any())
{
return(null);
}
CurveLoop cvLoop = new CurveLoop();
try
{
if (boundaries.Count == 1) // 要么是封闭的圆或圆弧，要么就不封闭
{
Curve c = ((ModelCurve)Doc.GetElement(boundaries[0])).GeometryCurve;
if ((c is Arc || c is Ellipse) && !c.IsBound)
{
cvLoop.Append(c);
}
else
{
throw new InvalidOperationException("选择的一条圆弧线或者椭圆线并不封闭。");
}
}
else
{
// 对于选择了多条曲线的情况
IList <Curve> cs = CurvesFormator.GetContiguousCurvesFromCurves(Doc, boundaries);
if (cs != null)
{
foreach (Curve c in cs)
{
cvLoop.Append(c);
}
}
else
{
throw new InvalidOperationException("所选择的曲线不连续。");
}
if (cvLoop.IsOpen())
{
throw new InvalidOperationException("所选择的曲线不能形成封闭的曲线。");
}
else if (!cvLoop.HasPlane())
{
throw new InvalidOperationException("所选择的曲线不在同一个平面上。");
}
else
{
return(cvLoop);
}
}
}
catch (Exception ex)
{
DialogResult res =
MessageBox.Show(
ex.Message + " 点击是以重新选择，点击否以退出绘制。" + "\r\n" + "当前选择的曲线条数为：" + Convert.ToString(boundaries.Count) +
"条。" +
"\r\n" + ex.StackTrace, "Warnning", MessageBoxButtons.YesNo);
if (res == DialogResult.Yes)
{
cvLoop = GetLoopedCurve(out modelCurves);
}
else
{
cvLoop = new CurveLoop();
return(cvLoop);
}
}
return(cvLoop);
}
void SubDivideSoffits_CreateFireRatedLayers(Document doc)
{
try
{
#region Get Soffits
List <Element> Soffits = new FilteredElementCollector(doc).OfCategory(BuiltInCategory.OST_Floors).ToElements().Where(m => !(m is ElementType)).ToList();
#endregion
//Subdivide
foreach (Element Soffit in Soffits.Where(m => m.Name.ToLower().Contains("eave")))
{
#region Get Soffit Geometry
Options ops = new Options();
ops.DetailLevel = ViewDetailLevel.Fine;
ops.IncludeNonVisibleObjects = true;
GeometryElement Geo = Soffit.get_Geometry(ops);
#endregion
foreach (var item in Geo)
{
if (item is Solid)
{
#region Get one of the Main Faces, it doesn't really matter if it is top or bottom
Solid GSol = item as Solid;
List <Face> Fs = new List <Face>();
foreach (Face f in GSol.Faces)
{
Fs.Add(f);
}
Face F = Fs.Where(m => m.Area == Fs.Max(a => a.Area)).First();
#endregion
#region Triangulate the Face with max detail
Mesh M = F.Triangulate(1);
#endregion
#region Create Variables for: the curves that will define the new Soffits, List of Custom Triangle Class, List of Custom Pair of Triangle Class
List <List <Curve> > LLC = new List <List <Curve> >();
List <Triangle> Triangles = new List <Triangle>();
List <TrianglePair> TPairs = new List <TrianglePair>();
#endregion
#region Loop Through Triangles & Add Them to the list of My Triangle Class
for (int i = 0; i < M.NumTriangles; i++)
{
List <Curve> LC = new List <Curve>();
#region Make List of Curves From Triangle
MeshTriangle MT = M.get_Triangle(i);
List <Curve> Curves = new List <Curve>();
Curve C = Line.CreateBound(MT.get_Vertex(0), MT.get_Vertex(1)) as Curve;
Curves.Add(C);
C = Line.CreateBound(MT.get_Vertex(1), MT.get_Vertex(2)) as Curve;
Curves.Add(C);
C = Line.CreateBound(MT.get_Vertex(2), MT.get_Vertex(0)) as Curve;
Curves.Add(C);
#endregion
Triangle T = new Triangle();
T.Sides = new List <Curve>();
T.Sides = Curves;
T.Vertices = new List <XYZ>();
T.Vertices.Add(MT.get_Vertex(0));
T.Vertices.Add(MT.get_Vertex(1));
T.Vertices.Add(MT.get_Vertex(2));
Triangles.Add(T);
}
#endregion
#region Loop Through Triangles And Create Trapezoid Pairs To Catch The Segments, Getting Rid of The Shared sides
bool GO = true;
do
{
Triangle TKeeper1 = new Triangle();
Triangle TKeeper2 = new Triangle();
foreach (Triangle T in Triangles)
{
TKeeper1 = new Triangle();
foreach (Triangle T2 in Triangles)
{
TKeeper2 = new Triangle();
if (T != T2)
{
if (FindCurvesFacing(T, T2) != null)
{
if (FindCurvesFacing(T, T2)[0].Length == T.Sides.Min(c => c.Length) ||
FindCurvesFacing(T, T2)[1].Length == T2.Sides.Min(c => c.Length))
{
continue;
}
Curve[] Cs = FindCurvesFacing(T, T2);
T.Sides.Remove(Cs[0]);
T2.Sides.Remove(Cs[1]);
if (T.Sides.Count() == 2 && T2.Sides.Count() == 2)
{
TKeeper1 = T;
TKeeper2 = T2;
goto ADDANDGOROUND;
}
}
}
}
}
GO = false;
ADDANDGOROUND:
if (GO)
{
Triangles.Remove(TKeeper1);
Triangles.Remove(TKeeper2);
TrianglePair TP = new TrianglePair();
TP.T1 = TKeeper1;
TP.T2 = TKeeper2;
TPairs.Add(TP);
}
} while(GO);
#endregion
#region Create Curve Loops From Triangle Pairs
foreach (TrianglePair TPair in TPairs)
{
List <Curve> Cs = new List <Curve>();
Cs.AddRange(TPair.T1.Sides);
Cs.AddRange(TPair.T2.Sides);
LLC.Add(Cs);
}
#endregion
double Offset = Convert.ToDouble(Soffit.LookupParameter("Height Offset From Level").AsValueString());
FloorType FT = (Soffit as Floor).FloorType;
Level Lvl = doc.GetElement((Soffit as Floor).LevelId) as Level;
#region Delete Old Soffit If All Went Well
using (Transaction T = new Transaction(doc, "Delete Soffit"))
{
T.Start();
doc.Delete(Soffit.Id);
T.Commit();
}
#endregion
#region Sort The Lists of Curves and Create The New Segments
foreach (List <Curve> LC in LLC)
{
List <Curve> LCSorted = new List <Curve>();
try
{
LCSorted = SortCurvesContiguous(LC, false);
}
#region Exception Details if Curves Could not be sorted
catch (Exception EXC)
{
string exmsge = EXC.Message;
}
#endregion
CurveArray CA = new CurveArray();
foreach (Curve C in LCSorted)
{
CA.Append(C);
}
using (Transaction T = new Transaction(doc, "Make Segment"))
{
T.Start();
Floor newFloor = doc.Create.NewFloor(CA, FT, Lvl, false);
newFloor.LookupParameter("Height Offset From Level").SetValueString(Offset.ToString());
T.Commit();
}
}
#endregion
}
}
}
//refresh collection
Soffits = new FilteredElementCollector(doc).OfCategory(BuiltInCategory.OST_Floors).ToElements().Where(m => !(m is ElementType)).ToList();
//test soffits for needing fire rating
foreach (Element Soffit in Soffits.Where(m => m.Name.ToLower().Contains("eave")))
{
#region Get Soffit Geometry
Options ops = new Options();
ops.DetailLevel = ViewDetailLevel.Fine;
ops.IncludeNonVisibleObjects = true;
GeometryElement Geo = Soffit.get_Geometry(ops);
#endregion
foreach (var item in Geo)
{
if (item is Solid)
{
#region Find boundary Void Element
List <Element> MaybeBoundary = new FilteredElementCollector(doc).OfCategory(BuiltInCategory.OST_Floors).ToElements().Where(m => !(m is ElementType)).ToList();
Element BoundryElement = MaybeBoundary.Where(m => !(m is FloorType) && m.Name == "Boundary").First();
#endregion
#region Get Intersection of Boundary and eave
PolygonAnalyser com = new PolygonAnalyser();
List <CurveArray> CArray = com.Execute(BoundryElement as Floor, Soffit as Floor);
Level L = doc.GetElement(Soffit.LevelId) as Level;
#endregion
foreach (CurveArray CA in CArray)
{
#region Sort The Curves
IList <Curve> CAL = new List <Curve>();
foreach (Curve C in CA)
{
CAL.Add(C);
}
List <Curve> Curves = SortCurvesContiguous(CAL, false);
List <XYZ> NewCurveEnds = new List <XYZ>();
#endregion
#region Close the loop if nesesary
CurveLoop CL = new CurveLoop();
foreach (Curve curv in Curves)
{
CL.Append(curv);
}
if (CL.IsOpen())
{
Curves.Add(Line.CreateBound(CL.First().GetEndPoint(0), CL.Last().GetEndPoint(1)) as Curve);
}
#endregion
#region Recreate a Curve Array
Curves = SortCurvesContiguous(Curves, false);
CurveArray CA2 = new CurveArray();
int i = 0;
foreach (Curve c in Curves)
{
CA2.Insert(c, i);
i += 1;
}
#endregion
#region Create The New Fire Rated Layer element
FloorType ft = new FilteredElementCollector(doc).WhereElementIsElementType().OfCategory(BuiltInCategory.OST_Floors).ToElements().Where(m => m.Name == "Fire Rated Layer").First() as FloorType;
Transaction T = new Transaction(doc, "Fire Rated Layer Creation");
try
{
T.Start();
Floor F = doc.Create.NewFloor(CA2, ft, L, false);
string s = Soffit.LookupParameter("Height Offset From Level").AsValueString();
double si = Convert.ToDouble(s);
si = si + (Convert.ToDouble(Soffit.LookupParameter("Thickness").AsValueString()));
F.LookupParameter("Height Offset From Level").SetValueString(si.ToString());
T.Commit();
}
catch (Exception EX)
{
T.RollBack();
string EXmsg = EX.Message;
}
#endregion
}
}
}
}
}
catch (Exception ex)
{
string mesg = ex.Message;
}
}