public PlanarFace PlanarFaceDistanceToMin(List <PlanarFace> listPlanarFaces, XYZ point)
{
PlanarFace face = null;
double min = 100;
foreach (PlanarFace planar in listPlanarFaces)
{
var fg = planar.Project(point);
if (fg == null)
{
continue;
}
else
{
XYZ Tert = fg.XYZPoint;
if (Tert != null)
{
double spa = point.DistanceTo(planar.Project(point).XYZPoint);
if (spa < min)
{
min = spa;
face = planar;
}
}
}
}
return(face);
}
public void DimAddAnnotation(Dimension dim, XYZ globalPoint, string above, string prefix, string suffix, string below)
{
DimensionSegment dimensionSegment = null;
double num = double.MaxValue;
foreach (object obj in dim.Segments)
{
DimensionSegment dimensionSegment2 = (DimensionSegment)obj;
XYZ origin = dimensionSegment2.Origin;
double num2 = origin.DistanceTo(globalPoint);
bool flag = num > num2;
if (flag)
{
dimensionSegment = dimensionSegment2;
num = num2;
}
}
bool flag2 = dimensionSegment != null;
if (flag2)
{
dimensionSegment.Above = above;
dimensionSegment.Prefix = prefix;
dimensionSegment.Suffix = suffix;
dimensionSegment.Below = below;
}
}
internal static Plane GetPlaneForCurve(Curve curve)
{
if (typeof(Line).IsAssignableFrom(curve.GetType()))
{
return(GetPlaneForLine((Line)curve));
}
else
{
XYZ startPt = curve.GetEndPoint(0);
XYZ intPt = curve.Evaluate(0.5, true);
XYZ endPt = curve.GetEndPoint(1);
if (startPt.DistanceTo(endPt) == 0)
{
endPt = curve.Evaluate(0.1, true);
}
XYZ v1 = endPt.Subtract(startPt);
XYZ v2 = intPt.Subtract(startPt);
XYZ normal = v1.CrossProduct(v2);
Random rand = new Random();
while (normal.IsZeroLength())
{
intPt = curve.Evaluate(rand.NextDouble(), true);
v1 = endPt.Subtract(startPt);
v2 = intPt.Subtract(startPt);
normal = v1.CrossProduct(v2);
}
return(Plane.CreateByNormalAndOrigin(normal, startPt));
}
}
public static void DrawLine(XYZ p1, XYZ p2)
{
Transaction t = null;
if (_doc.IsModifiable == false)
{
t = new Transaction(_doc, "Draw Line");
t.Start();
}
Line ln = Line.CreateBound(p1, p2);
if (p1.DistanceTo(p2) < 1.0 / 32.0)
{
return; // too small!
}
XYZ v1 = p2.Subtract(p1).Normalize();
XYZ other = XYZ.BasisX;
double ang = (v1.AngleTo(other));
if ((ang > 0.9 * Math.PI) || (ang < 0.1))
{
other = XYZ.BasisY;
}
XYZ norm = v1.CrossProduct(other).Normalize();
Plane p = Plane.CreateByNormalAndOrigin(norm, p1);
SketchPlane sp = SketchPlane.Create(_doc, p);
_doc.Create.NewModelCurve(ln, sp);
if (t != null)
{
t.Commit();
}
}
/// <summary>
/// Gets all of the physicals (excluding the given) in the given spherical area. If any part of a physical clips the area, it will be returned.
/// </summary>
/// <param name="center">The center of the sphere to check.</param>
/// <param name="radius">The radius of the sphere to check.</param>
/// <param name="physicalsToIgnore">The physicals to exclude from this check.</param>
/// <returns>The physicals in this area.</returns>
/// <exception cref="System.ArgumentException">When the center is out of bounds or the radius is <= 0.</exception>
public IEnumerable <IPhysical> GetPhysicalsInAreaExcluding_Nice(XYZ center, double radius, IEnumerable <IPhysical> physicalsToIgnore)
{
if (OutOfBounds(center))
{
//throw new ArgumentException("The center is out of bounds.", "center");
}
if (radius <= 0)
{
throw new ArgumentException("The radius must be a positive non-zero number.", "radius");
}
LinkedList <IPhysical> found = new LinkedList <IPhysical>();
foreach (IPhysical physical in physicals)
{
if (physicalsToIgnore.Contains(physical))
{
continue;
}
if (center.DistanceTo(physical.GetPosition()) <= (radius + physical.GetSize()))
{
found.AddLast(physical);
}
}
return(found);
}
/// <summary>
/// Create a Revit Curve from a vertical column
/// </summary>
/// <param name="inst">The vertical column instance</param>
/// <returns>The created Revit Line</returns>
public Line CreateVerticalColumnCurve(FamilyInstance inst)
{
var lp = inst.Location != null ? (LocationPoint)inst.Location : null;
var pt = lp != null ? lp.Point : null;
var baseLevelParam = inst.get_Parameter(BuiltInParameter.FAMILY_BASE_LEVEL_PARAM);
var baseLevel = baseLevelParam != null?a_doc.GetElement(baseLevelParam.AsElementId()) as Level : null;
var topLevelParam = inst.get_Parameter(BuiltInParameter.FAMILY_TOP_LEVEL_PARAM);
var topLevel = topLevelParam != null?a_doc.GetElement(topLevelParam.AsElementId()) as Level : null;
Line retLine = null;
if (pt != null && baseLevel != null && topLevel != null)
{
var baseOffset = inst.GetParameters("Base Offset");
var baseOffsetVal = baseOffset != null && baseOffset.Count > 0 ? UnitUtils.ConvertFromInternalUnits(baseOffset[0].AsDouble(), DisplayUnitType.DUT_DECIMAL_FEET) : 0.0;
var topOffset = inst.GetParameters("Top Offset");
var topOffsetVal = topOffset != null && topOffset.Count > 0 ? UnitUtils.ConvertFromInternalUnits(topOffset[0].AsDouble(), DisplayUnitType.DUT_DECIMAL_FEET) : 0.0;
var strPt = new XYZ(pt.X, pt.Y, baseLevel.Elevation + baseOffsetVal);
var endPt = new XYZ(pt.X, pt.Y, topLevel.Elevation + topOffsetVal);
double length = strPt.DistanceTo(endPt);
if (length >= a_doc.Application.ShortCurveTolerance)
{
retLine = Line.CreateBound(strPt, endPt);
}
}
return(retLine);
}
internal static bool IsBoxTooSmall(Autodesk.Revit.ApplicationServices.Application app, BoundingBoxXYZ box)
{
// we need to determine if any of the lines are less than the curve tolerance.
XYZ A1 = box.Min;
XYZ A2 = new XYZ(box.Max.X, box.Min.Y, box.Min.Z);
XYZ A3 = new XYZ(box.Max.X, box.Max.Y, box.Min.Z);
XYZ A4 = new XYZ(box.Min.X, box.Max.Y, box.Min.Z);
if (A1.DistanceTo(A2) < app.ShortCurveTolerance)
{
return(true);
}
if (A2.DistanceTo(A3) < app.ShortCurveTolerance)
{
return(true);
}
if (A3.DistanceTo(A4) < app.ShortCurveTolerance)
{
return(true);
}
if (A4.DistanceTo(A1) < app.ShortCurveTolerance)
{
return(true);
}
if (Math.Abs(box.Max.Z - box.Min.Z) < app.ShortCurveTolerance)
{
return(true);
}
// if we got here, we're in the clear.
return(false);
}
/// <summary>
/// Calculate the signal attenuation between the
/// given source and target points using ray tracing.
/// Walls and distance through air cause losses.
/// </summary>
public double Attenuation(XYZ psource, XYZ ptarget)
{
#if DEBUG_GRAPHICAL
Debug.Print(string.Format("{0} -> {1}",
Util.PointString(psource),
Util.PointString(ptarget)));
if (null == _sketch || 0.0001
< _sketch.GetPlane().Origin.Z - psource.Z)
{
Plane plane = Plane.CreateByNormalAndOrigin(
XYZ.BasisZ, psource);
_sketch = SketchPlane.Create(_doc, plane);
}
Line line = Line.CreateBound(psource, ptarget);
_sketch.Document.Create.NewModelCurve(line, _sketch);
#endif // DEBUG_GRAPHICAL
double d = ptarget.DistanceTo(psource);
double a = Util.FootToMetre(d)
* _settings.AttenuationAirPerMetreInDb;
int wallCount = GetWallCount(psource, ptarget);
a += wallCount * _settings.AttenuationWallInDb;
return(a);
}
/// <summary>
/// Compute values at point for face
/// </summary>
/// <param name="face">Give face</param>
/// <param name="uvPts">UV points</param>
/// <param name="valList">Values at point</param>
/// <param name="measurementNo"></param>
private void ComputeValueAtPointForFace(Face face, out IList <UV> uvPts,
out IList <ValueAtPoint> valList, int measurementNo)
{
List <double> doubleList = new List <double>();
uvPts = new List <UV>();
valList = new List <ValueAtPoint>();
BoundingBoxUV bb = face.GetBoundingBox();
for (double u = bb.Min.U; u < bb.Max.U + 0.0000001; u = u + (bb.Max.U - bb.Min.U) / 1)
{
for (double v = bb.Min.V; v < bb.Max.V + 0.0000001; v = v + (bb.Max.V - bb.Min.V) / 1)
{
UV uvPnt = new UV(u, v);
uvPts.Add(uvPnt);
XYZ faceXYZ = face.Evaluate(uvPnt);
// Specify three values for each point
for (int ii = 1; ii <= measurementNo; ii++)
{
doubleList.Add(faceXYZ.DistanceTo(XYZ.Zero) * ii);
}
valList.Add(new ValueAtPoint(doubleList));
doubleList.Clear();
}
}
}
public static double Gethsfs(Document doc, Room piece, ElementCategoryFilter filtresol)
{
double hsfs = 0.00;
// on verifie si sol au dessus de piece
try
{
LocationPoint locpiece = piece.Location as LocationPoint;
XYZ ptpiece = locpiece.Point;
ptpiece = new XYZ(ptpiece.X, ptpiece.Y, ptpiece.Z + 0.05);
XYZ vecteurpiece = new XYZ(0, 0, 1);
ReferenceIntersector refi = new ReferenceIntersector(filtresol, FindReferenceTarget.Face, (View3D)doc.ActiveView);
ReferenceWithContext refc = refi.FindNearest(ptpiece, vecteurpiece);
Reference reference = refc.GetReference();
XYZ intpoint = reference.GlobalPoint;
hsfs = ptpiece.DistanceTo(intpoint);
hsfs = UnitUtils.ConvertFromInternalUnits(hsfs, DisplayUnitType.DUT_METERS);
hsfs = Math.Round(hsfs, 2);
//MessageBox.Show(string.Format("hauteur sous dalle : {0}", hsfs));
}
catch (Exception)
{
//MessageBox.Show("pas de sol au dessus de la piece","erreur");
hsfs = 0.00;
}
return(hsfs);
}
private static XYZ CalculateTagPointAndLinePointFromLine(Curve beamCurve, XYZ vecticalVector, ref XYZ currentPoint0, ref XYZ currentPoint1)
{
var standardLength = BeamAnnotationConstaints.standardLength;
var midPoint = (beamCurve.GetEndPoint(0) + beamCurve.GetEndPoint(1)) / 2;
beamCurve.MakeUnbound();
var project = beamCurve.Project(currentPoint0);
var lengthPoint1 = currentPoint1.DistanceTo(project.XYZPoint);
var lengthPoint0 = currentPoint0.DistanceTo(project.XYZPoint);
if (lengthPoint0 > lengthPoint1)//在梁上方
{
currentPoint1 = project.XYZPoint;
if (lengthPoint0 < standardLength)
{
currentPoint0 = currentPoint1 - standardLength * vecticalVector;
}
return(currentPoint0);
}
else
{
currentPoint0 = project.XYZPoint;
if (lengthPoint1 < standardLength)
{
currentPoint1 = currentPoint0 + standardLength * vecticalVector;
}
return(currentPoint1 - standardLength * vecticalVector);
}
}
private void UpdateLeaderPosition()
{
//Update elbow position
XYZ AB = _leaderEnd - _tagCenter;
double mult = AB.X * AB.Y;
mult = mult / Math.Abs(mult);
XYZ delta = new XYZ(AB.X - AB.Y * Math.Tan(mult * Math.PI / 4), 0, 0);
_elbowPosition = _tagCenter + delta;
//Update lines
if (_leaderEnd.DistanceTo(_elbowPosition) > _doc.Application.ShortCurveTolerance)
{
_endLine = Line.CreateBound(_leaderEnd, _elbowPosition);
}
else
{
_endLine = Line.CreateBound(new XYZ(0, 0, 0), new XYZ(0, 0, 1));
}
if (_elbowPosition.DistanceTo(_tagCenter) > _doc.Application.ShortCurveTolerance)
{
_baseLine = Line.CreateBound(_elbowPosition, _tagCenter);
}
else
{
_baseLine = Line.CreateBound(new XYZ(0, 0, 0), new XYZ(0, 0, 1));
}
}
private static XYZ CalculateTagPointAndLinePointFromTag(Curve beamCurve, XYZ tagPoint, XYZ parallelVector, XYZ vecticalVector, out XYZ currentPoint0, out XYZ currentPoint1)
{
var standardLength = BeamAnnotationConstaints.standardLength;
var parallelLength = BeamAnnotationConstaints.parallelLength;
var vecticalLength = BeamAnnotationConstaints.vecticalLength;
var tagDiagonalXYZ = parallelLength * parallelVector + vecticalLength * vecticalVector;
currentPoint0 = tagPoint - tagDiagonalXYZ;
var z = currentPoint0.Z; //梁的Z轴为0与Curve绘制的轴不一致,调整为以Curve为准
var midPoint = (beamCurve.GetEndPoint(0) + beamCurve.GetEndPoint(1)) / 2;
var orientPoint0 = new XYZ(midPoint.X, midPoint.Y, currentPoint0.Z); //梁的Z轴为0与Curve绘制的轴不一致,调整为以Curve为准
currentPoint1 = currentPoint0 + standardLength * vecticalVector;
beamCurve.MakeUnbound();
var project = beamCurve.Project(currentPoint0);
if (currentPoint0.DistanceTo(project.XYZPoint) > currentPoint1.DistanceTo(project.XYZPoint))
{
currentPoint1 = project.XYZPoint;
currentPoint1 = new XYZ(currentPoint1.X, currentPoint1.Y, z);
if (currentPoint0.DistanceTo(project.XYZPoint) < standardLength)
{
currentPoint0 = currentPoint1 - standardLength * vecticalVector;
currentPoint0 = new XYZ(currentPoint0.X, currentPoint0.Y, z);
return(currentPoint0);
}
else
{
return(null);
}
}
else
{
currentPoint0 = project.XYZPoint;
currentPoint0 = new XYZ(currentPoint0.X, currentPoint0.Y, z);
if (currentPoint1.DistanceTo(project.XYZPoint) < standardLength)
{
currentPoint1 = currentPoint0 + standardLength * vecticalVector;
currentPoint1 = new XYZ(currentPoint1.X, currentPoint1.Y, z);
return(currentPoint1 - standardLength * vecticalVector);
}
else
{
return(null);
}
}
}
private double ProjectedDistance(Plane plane, XYZ pointA, XYZ pointB)
{
//To be tested
XYZ UVA = ProjectionOnPlane(pointA, plane);
XYZ UVB = ProjectionOnPlane(pointB, plane);
return(UVA.DistanceTo(UVB));
}
public static Line TryCreateLine(XYZ firstPoint, XYZ secondPoint)
{
if (firstPoint.DistanceTo(secondPoint) < 1.MmToFt())
{
return(null);
}
return(Line.CreateBound(firstPoint, secondPoint));
}
/// <summary>
/// 求点到某点直线的距离
/// </summary>
/// <param name="p1"></param>
/// <param name="xLine"></param>
/// <returns></returns>
public static double DistanceTo(this XYZ p1, Line xLine)
{
double result = double.NegativeInfinity;
XYZ p1_onLine = p1.ProjectToXLine(xLine);
result = p1.DistanceTo(p1_onLine);
return(result);
}
internal static double DistancePointToLevel(XYZ point, Level level)
{
double elevation = level.Elevation;
XYZ location = new XYZ(0, 0, elevation);
double distance = point.DistanceTo(location);
return(distance);
}
public static Line TryCreateBound(XYZ pt1, XYZ pt2)
{
if (pt1.DistanceTo(pt2) < 1.MmToFt())
{
return(null);
}
return(Line.CreateBound(pt1, pt2));
}
private XYZ FindNearestPoint(List <XYZ> points, XYZ basePoint)
{
XYZ nearestPoint = points.FirstOrDefault();
double nearestDistance = basePoint.DistanceTo(nearestPoint);
double currentDistance = basePoint.DistanceTo(nearestPoint);
foreach (XYZ point in points)
{
currentDistance = basePoint.DistanceTo(point);
if (currentDistance < nearestDistance)
{
nearestPoint = point;
nearestDistance = basePoint.DistanceTo(point);
}
}
return(nearestPoint);
}
public override Value Evaluate(FSharpList <Value> args)
{
//Grab our inputs and turn them into XYZs.
XYZ ptA = this.getXYZ(((Value.Container)args[0]).Item);
XYZ ptB = this.getXYZ(((Value.Container)args[1]).Item);
//Return the calculated distance.
return(Value.NewNumber(ptA.DistanceTo(ptB)));
}
private static ElementId SectionFromTwoPoints(Document doc, XYZ p1, XYZ p2, double height, double elevation, double view_depth)
{
//Convert all numeric values to internal units
height = UnitUtils.ConvertToInternalUnits(height, DisplayUnitType.DUT_METERS);
elevation = UnitUtils.ConvertToInternalUnits(elevation, DisplayUnitType.DUT_METERS);
view_depth = UnitUtils.ConvertToInternalUnits(view_depth, DisplayUnitType.DUT_MILLIMETERS);
//Filtered the document and get the view section, get its ID
FilteredElementCollector filter = new FilteredElementCollector(doc);
Element view1 = filter.OfClass(typeof(ViewFamilyType))
.WhereElementIsElementType()
.Cast <ViewFamilyType>()
.First(x => x.ViewFamily == ViewFamily.Section);
ElementId viewId = view1.Id;
//Create a bounding box on the origin
BoundingBoxXYZ bBox = new BoundingBoxXYZ();
bBox.Min = new XYZ(0, 0, 0);
bBox.Max = new XYZ(p1.DistanceTo(p2), height, view_depth);
//Cartesian transform for the BBox, from 0,0,0 to line initial point
Transform t = new Transform(Transform.Identity);
XYZ bb_x = (p2 - p1).Normalize();
XYZ bb_y = XYZ.BasisZ;
XYZ bb_z = bb_x.CrossProduct(bb_y);
t.Origin = new XYZ(p1.X, p1.Y, elevation);
t.BasisX = bb_x;
t.BasisY = bb_y;
t.BasisZ = bb_z;
bBox.Transform = t;
//try
//{
using (Transaction trans = new Transaction(doc, "Create cross section"))
{
trans.Start();
ViewSection sec = ViewSection.CreateSection(doc, viewId, bBox);
trans.Commit();
return(sec.Id);
}
//}
// catch
// {
// return null;
// }
}
private double DistancePointToLevel(XYZ point, Level level)
{
double elevation = level.Elevation;
XYZ location = new XYZ(0, 0, elevation);
XYZ prolectPoint = new XYZ(0, 0, point.Z);
double distance = prolectPoint.DistanceTo(location);
return(distance);
}
public override Value Evaluate(FSharpList <Value> args)
{
//Grab our inputs and turn them into XYZs.
XYZ ptA = this.getXYZ(((Value.Container)args[0]).Item);
XYZ ptB = this.getXYZ(((Value.Container)args[1]).Item);
//Return the calculated distance.
return(Value.NewContainer(Units.Length.FromFeet(ptA.DistanceTo(ptB), dynSettings.Controller.UnitsManager)));
}
/// <summary>
/// Extend the line to a boundary line. If the line has already surpassed it, trim the line instead.
/// </summary>
/// <param name="line"></param>
/// <param name="terminal"></param>
/// <returns></returns>
public static Curve ExtendLine(Curve line, Curve terminal)
{
Line line_unbound = line.Clone() as Line;
Line terminal_unbound = terminal.Clone() as Line;
line_unbound.MakeUnbound();
terminal_unbound.MakeUnbound();
SetComparisonResult result = line_unbound.Intersect(terminal_unbound, out IntersectionResultArray results);
if (result == SetComparisonResult.Overlap)
{
XYZ sectPt = results.get_Item(0).XYZPoint;
XYZ extensionVec = (sectPt - line.GetEndPoint(0)).Normalize();
if (Algorithm.IsPtOnLine(sectPt, line as Line))
{
double distance1 = sectPt.DistanceTo(line.GetEndPoint(0));
double distance2 = sectPt.DistanceTo(line.GetEndPoint(1));
if (distance1 > distance2)
{
return(Line.CreateBound(line.GetEndPoint(0), sectPt));
}
else
{
return(Line.CreateBound(line.GetEndPoint(1), sectPt));
}
}
else
{
if (extensionVec.IsAlmostEqualTo(line_unbound.Direction))
{
return(Line.CreateBound(line.GetEndPoint(0), sectPt));
}
else
{
return(Line.CreateBound(sectPt, line.GetEndPoint(1)));
}
}
}
else
{
Debug.Print("Cannot locate the intersection point.");
return(null);
}
}
/// <summary>
/// Create a model line between the two given points.
/// Internally, it creates an arbitrary sketch
/// plane given the model line end points.
/// </summary>
public static ModelLine CreateModelLine(
Document doc,
XYZ p,
XYZ q)
{
if (p.DistanceTo(q) < Util.MinLineLength)
{
return(null);
}
// Create sketch plane; for non-vertical lines,
// use Z-axis to span the plane, otherwise Y-axis:
XYZ v = q - p;
double dxy = Math.Abs(v.X) + Math.Abs(v.Y);
XYZ w = (dxy > Util.TolPointOnPlane)
? XYZ.BasisZ
: XYZ.BasisY;
XYZ norm = v.CrossProduct(w).Normalize();
//Autodesk.Revit.Creation.Application creApp
// = doc.Application.Create;
//Plane plane = creApp.NewPlane( norm, p ); // 2014
//Plane plane = new Plane( norm, p ); // 2015, 2016
Plane plane = Plane.CreateByNormalAndOrigin(norm, p); // 2017
//SketchPlane sketchPlane = creDoc.NewSketchPlane( plane ); // 2013
SketchPlane sketchPlane = SketchPlane.Create(doc, plane); // 2014
//Line line = creApp.NewLine( p, q, true ); // 2013
Line line = Line.CreateBound(p, q); // 2014
// The following line is only valid in a project
// document. In a family, it will throw an exception
// saying "Document.Create can only be used with
// project documents. Use Document.FamilyCreate
// in the Family Editor."
//Autodesk.Revit.Creation.Document creDoc
// = doc.Create;
//return creDoc.NewModelCurve(
// //creApp.NewLine( p, q, true ), // 2013
// Line.CreateBound( p, q ), // 2014
// sketchPlane ) as ModelLine;
ModelCurve curve = doc.IsFamilyDocument
? doc.FamilyCreate.NewModelCurve(line, sketchPlane)
: doc.Create.NewModelCurve(line, sketchPlane);
return(curve as ModelLine);
}
public List <Line> TwoLineOneOrigin(Line line1, Line line2)
{
List <Line> lines = new List <Line>();
XYZ intersection = GetIntersection(line1, line2);
if (intersection == null)
{
return(null);
}
XYZ xyz_start1 = line1.GetEndPoint(0);
XYZ xyz_end1 = line1.GetEndPoint(1);
XYZ xyz_start2 = line2.GetEndPoint(0);
XYZ xyz_end2 = line2.GetEndPoint(1);
Line newline1 = null;
Line newline2 = null;
if (intersection.DistanceTo(xyz_start1) > intersection.DistanceTo(xyz_end1))
{
newline1 = Line.CreateBound(intersection, xyz_start1);
}
else
{
newline1 = Line.CreateBound(intersection, xyz_end1);
}
if (intersection.DistanceTo(xyz_start2) > intersection.DistanceTo(xyz_end2))
{
newline2 = Line.CreateBound(intersection, xyz_start2);
}
else
{
newline2 = Line.CreateBound(intersection, xyz_end2);
}
lines.Add(newline1);
lines.Add(newline2);
return(lines);
}
public static MEPCurve BreakCurve(this MEPCurve mep, XYZ point)
{
var locationline = mep.LocationLine();
var start = locationline.StartPoint();
var end = locationline.EndPoint();
var executeflag = point.IsOnLine(locationline) && point.DistanceTo(start) > 1d.MetricToFeet() &&
point.DistanceTo(end) > 1d.MetricToFeet();
if (!executeflag)
{
throw new Exception("点不在线上");
}
var doc = mep.Document;
#if Revit2016
return(null);
#endif
#if Revit2019
ElementId result = null;
if (mep is Duct)
{
result = MechanicalUtils.BreakCurve(doc, mep.Id, point);
}
else if (mep is Pipe)
{
result = PlumbingUtils.BreakCurve(doc, mep.Id, point);
}
else if (mep is CableTray)
{
var newline1 = Line.CreateBound(start, point);
var newline2 = Line.CreateBound(point, end);
(mep.Location as LocationCurve).Curve = newline1;
var newcabletray = CableTray.Create(doc, mep.GetTypeId(), point, end, mep.ReferenceLevel.Id);
var para_w = newcabletray.get_Parameter(BuiltInParameter.RBS_CABLETRAY_WIDTH_PARAM);
var para_H = newcabletray.get_Parameter(BuiltInParameter.RBS_CABLETRAY_HEIGHT_PARAM);
para_w.Set(mep.Width);
para_H.Set(mep.Height);
result = newcabletray.Id;
}
return(result.GetElement(doc) as MEPCurve);
#endif
}
private XYZ FindNearestPoint(List <XYZ> points, XYZ basePoint)
{
XYZ xyz = ((IEnumerable <XYZ>)points).FirstOrDefault <XYZ>();
double num = basePoint.DistanceTo(xyz);
basePoint.DistanceTo(xyz);
using (List <XYZ> .Enumerator enumerator = points.GetEnumerator())
{
while (enumerator.MoveNext())
{
XYZ current = enumerator.Current;
if (basePoint.DistanceTo(current) < num)
{
xyz = current;
num = basePoint.DistanceTo(current);
}
}
}
return(xyz);
}
public double CalculateFamilyInstanceBBRadius()
{
BoundingBoxXYZ familySolidBB = null;
using (Transaction tx = new Transaction(m_doc))
{
tx.Start("Transaction Temp");
// Get a bottom face from room solid
SpatialElementGeometryCalculator calculator = new SpatialElementGeometryCalculator(m_doc);
SpatialElementGeometryResults results = calculator.CalculateSpatialElementGeometry(m_room);
Solid roomSolid = results.GetGeometry();
PlanarFace roomFace = GetBottomPlanarFaceFromSolid(roomSolid);
// Create family instance temporarily
FamilyInstance tempInstance = m_doc.Create.NewFamilyInstance(roomFace.Origin, m_familySymbol, m_level, Autodesk.Revit.DB.Structure.StructuralType.NonStructural);
// Get a boudingbox of family instance
Options getometryOptions = new Options();
getometryOptions.IncludeNonVisibleObjects = false;
getometryOptions.View = m_view;
GeometryElement geoElem = tempInstance.get_Geometry(getometryOptions);
foreach (GeometryObject geoObject in geoElem)
{
GeometryInstance geoInst = geoObject as GeometryInstance;
foreach (GeometryObject instanceGeoObject in geoInst.GetInstanceGeometry())
{
if (instanceGeoObject is Solid)
{
Solid solid = (Solid)instanceGeoObject;
familySolidBB = solid.GetBoundingBox();
}
}
}
tx.RollBack();
}
// Calculate perimeter of family instance
XYZ familySolidBBMaxPt = familySolidBB.Max;
XYZ familySolidBBMinPt = familySolidBB.Min;
XYZ minPt = new XYZ(familySolidBBMinPt.X, familySolidBBMinPt.Y, 0.0);
XYZ maxPt = new XYZ(familySolidBBMaxPt.X, familySolidBBMaxPt.Y, 0.0);
double familySolidBBRadius = (minPt.DistanceTo(maxPt)) / 2;
familySolidBBRadius = Math.Round(familySolidBBRadius, 4, MidpointRounding.AwayFromZero);
return(familySolidBBRadius);
}
/// <summary>
/// 判断点是否在直线上
/// </summary>
/// <param name="p"></param>
/// <param name="l"></param>
/// <returns></returns>
public static bool IsOnLine(this XYZ p, Line l)
{
XYZ end1 = l.GetEndPoint(0);
XYZ end2 = l.GetEndPoint(1);
XYZ vec_pToEnd1 = end1 - p;
XYZ vec_pToEnd2 = end2 - p;
if (p.DistanceTo(end1) < precision || p.DistanceTo(end2) < precision)
{
return(true);
}
if (vec_pToEnd1.IsOppositeDirection(vec_pToEnd2))
{
return(true);
}
return(false);
}
/// <summary>
/// Create a model line between the two given points.
/// Internally, it creates an arbitrary sketch
/// plane given the model line end points.
/// </summary>
public static ModelLine CreateModelLine(
Document doc,
XYZ p,
XYZ q)
{
if( p.DistanceTo( q ) < Util.MinLineLength ) return null;
// Create sketch plane; for non-vertical lines,
// use Z-axis to span the plane, otherwise Y-axis:
XYZ v = q - p;
double dxy = Math.Abs( v.X ) + Math.Abs( v.Y );
XYZ w = ( dxy > Util.TolPointOnPlane )
? XYZ.BasisZ
: XYZ.BasisY;
XYZ norm = v.CrossProduct( w ).Normalize();
//Autodesk.Revit.Creation.Application creApp
// = doc.Application.Create;
//Plane plane = creApp.NewPlane( norm, p ); // 2014
//Plane plane = new Plane( norm, p ); // 2015, 2016
Plane plane = Plane.CreateByNormalAndOrigin( norm, p ); // 2017
//SketchPlane sketchPlane = creDoc.NewSketchPlane( plane ); // 2013
SketchPlane sketchPlane = SketchPlane.Create( doc, plane ); // 2014
//Line line = creApp.NewLine( p, q, true ); // 2013
Line line = Line.CreateBound( p, q ); // 2014
// The following line is only valid in a project
// document. In a family, it will throw an exception
// saying "Document.Create can only be used with
// project documents. Use Document.FamilyCreate
// in the Family Editor."
//Autodesk.Revit.Creation.Document creDoc
// = doc.Create;
//return creDoc.NewModelCurve(
// //creApp.NewLine( p, q, true ), // 2013
// Line.CreateBound( p, q ), // 2014
// sketchPlane ) as ModelLine;
ModelCurve curve = doc.IsFamilyDocument
? doc.FamilyCreate.NewModelCurve( line, sketchPlane )
: doc.Create.NewModelCurve( line, sketchPlane );
return curve as ModelLine;
}
/// <summary>
/// Miroslav Schonauer's model line creation method.
/// A utility function to create an arbitrary sketch
/// plane given the model line end points.
/// </summary>
/// <param name="app">Revit application</param>
/// <param name="p">Model line start point</param>
/// <param name="q">Model line end point</param>
/// <returns></returns>
public static ModelLine CreateModelLine(
Document doc,
XYZ p,
XYZ q)
{
if( p.DistanceTo( q ) < Util.MinLineLength ) return null;
// Create sketch plane; for non-vertical lines,
// use Z-axis to span the plane, otherwise Y-axis:
XYZ v = q - p;
double dxy = Math.Abs( v.X ) + Math.Abs( v.Y );
XYZ w = ( dxy > Util.TolPointOnPlane )
? XYZ.BasisZ
: XYZ.BasisY;
XYZ norm = v.CrossProduct( w ).Normalize();
Autodesk.Revit.Creation.Application creApp
= doc.Application.Create;
Plane plane = creApp.NewPlane( norm, p );
Autodesk.Revit.Creation.Document creDoc
= doc.Create;
//SketchPlane sketchPlane = creDoc.NewSketchPlane( plane ); // 2013
SketchPlane sketchPlane = SketchPlane.Create( doc, plane ); // 2014
return creDoc.NewModelCurve(
//creApp.NewLine( p, q, true ), // 2013
Line.CreateBound( p, q ), // 2014
sketchPlane ) as ModelLine;
}
private Face FindFace(XYZ location, XYZ vector, Document doc)
{
Face face = null;
FilteredElementCollector elementCollector = new FilteredElementCollector(doc);
elementCollector.WhereElementIsNotElementType();
Options opt = new Options { ComputeReferences = true };
foreach (Element e in elementCollector)
{
try
{
GeometryElement ge = e.get_Geometry(opt);
foreach (GeometryObject go in ge)
{
try
{
XYZ endPt = location + vector;
Line l = Line.CreateBound(location - vector, endPt);
Curve c = l as Curve;
double dist = 1000000;
GeometryInstance geoInst = go as GeometryInstance;
if (geoInst != null)
{
// Family instance
GeometryElement instGeometry = geoInst.GetInstanceGeometry();
foreach (GeometryObject o in instGeometry)
{
Solid s = o as Solid;
if (s != null)
foreach (Face f in s.Faces)
{
IntersectionResultArray results;
SetComparisonResult result = f.Intersect(c, out results);
if (results != null)
{
foreach (IntersectionResult res in results)
{
XYZ intersect = res.XYZPoint;
double tempDist = location.DistanceTo(intersect);
if (tempDist < dist)
{
dist = tempDist;
face = f;
if (dist < 0.05)
{
return f;
}
}
}
}
}
}
}
else
{
// Assume something like a wall.
Solid solid = go as Solid;
if (solid != null)
foreach (Face f in solid.Faces)
{
IntersectionResultArray results;
SetComparisonResult result = f.Intersect(c, out results);
if (results != null)
{
foreach (IntersectionResult res in results)
{
XYZ intersect = res.XYZPoint;
double tempDist = location.DistanceTo(intersect);
if (tempDist < dist)
{
dist = tempDist;
face = f;
if (dist < 0.05)
{
return f;
}
}
}
}
}
}
}
catch (Exception ex)
{
//errors++;
Debug.WriteLine(ex.Message);
}
}
}
catch (Exception ex)
{
//errors++;
Debug.WriteLine(ex.Message);
}
}
if (face == null)
{
TaskDialog.Show("error", "no face found");
}
return face;
}
/// <summary>
/// Returns true if the line segment from pt1 to pt2 is less than the short curve tolerance.
/// </summary>
/// <param name="pt1">The first point of the line segment.</param>
/// <param name="pt2">The final point of the line segment.</param>
/// <returns>True if it is too short, false otherwise.</returns>
public static bool LineSegmentIsTooShort(XYZ pt1, XYZ pt2)
{
double dist = pt1.DistanceTo(pt2);
return (dist < IFCImportFile.TheFile.Document.Application.ShortCurveTolerance + MathUtil.Eps());
}
/// <summary>
/// Main implementation to export walls.
/// </summary>
/// <param name="exporterIFC">The ExporterIFC object.</param>
/// <param name="element">The element.</param>
/// <param name="connectedWalls">Information about walls joined to this wall.</param>
/// <param name="geometryElement">The geometry element.</param>
/// <param name="origWrapper">The ProductWrapper.</param>
/// <param name="overrideLevelId">The level id.</param>
/// <param name="range">The range to be exported for the element.</param>
/// <returns>The exported wall handle.</returns>
public static IFCAnyHandle ExportWallBase(ExporterIFC exporterIFC, Element element, IList<IList<IFCConnectedWallData>> connectedWalls,
GeometryElement geometryElement, ProductWrapper origWrapper, ElementId overrideLevelId, IFCRange range)
{
// Check cases where we choose not to export early.
ElementId catId = CategoryUtil.GetSafeCategoryId(element);
Wall wallElement = element as Wall;
FamilyInstance famInstWallElem = element as FamilyInstance;
FaceWall faceWall = element as FaceWall;
bool exportingWallElement = (wallElement != null);
bool exportingFamilyInstance = (famInstWallElem != null);
bool exportingFaceWall = (faceWall != null);
if (!exportingWallElement && !exportingFamilyInstance && !exportingFaceWall)
return null;
if (exportingWallElement && IsWallCompletelyClipped(wallElement, exporterIFC, range))
return null;
IFCRange zSpan = null;
double depth = 0.0;
bool validRange = (range != null && !MathUtil.IsAlmostZero(range.Start - range.End));
bool exportParts = PartExporter.CanExportParts(element);
if (exportParts && !PartExporter.CanExportElementInPartExport(element, validRange ? overrideLevelId : element.LevelId, validRange))
return null;
IList<Solid> solids = new List<Solid>();
IList<Mesh> meshes = new List<Mesh>();
bool exportingInplaceOpenings = false;
if (!exportParts)
{
if (exportingWallElement || exportingFaceWall)
{
GetSolidsAndMeshes(geometryElement, range, ref solids, ref meshes);
if (solids.Count == 0 && meshes.Count == 0)
return null;
}
else
{
GeometryElement geomElemToUse = GetGeometryFromInplaceWall(famInstWallElem);
if (geomElemToUse != null)
{
exportingInplaceOpenings = true;
}
else
{
exportingInplaceOpenings = false;
geomElemToUse = geometryElement;
}
Transform trf = Transform.Identity;
if (geomElemToUse != geometryElement)
trf = famInstWallElem.GetTransform();
SolidMeshGeometryInfo solidMeshCapsule = GeometryUtil.GetSplitSolidMeshGeometry(geomElemToUse, trf);
solids = solidMeshCapsule.GetSolids();
meshes = solidMeshCapsule.GetMeshes();
}
}
IFCFile file = exporterIFC.GetFile();
using (IFCTransaction tr = new IFCTransaction(file))
{
using (ProductWrapper localWrapper = ProductWrapper.Create(origWrapper))
{
// get bounding box height so that we can subtract out pieces properly.
// only for Wall, not FamilyInstance.
if (exportingWallElement && geometryElement != null)
{
// There is a problem in the API where some walls with vertical structures are overreporting their height,
// making it appear as if there are clipping problems on export. We will work around this by getting the
// height directly from the solid(s).
if (solids.Count > 0 && meshes.Count == 0)
{
zSpan = GetBoundingBoxOfSolids(solids);
}
else
{
BoundingBoxXYZ boundingBox = wallElement.get_BoundingBox(null);
if (boundingBox != null)
zSpan = GetBoundingBoxZRange(boundingBox);
}
if (zSpan == null)
return null;
// if we have a top clipping plane, modify depth accordingly.
double bottomHeight = validRange ? Math.Max(zSpan.Start, range.Start) : zSpan.Start;
double topHeight = validRange ? Math.Min(zSpan.End, range.End) : zSpan.End;
depth = topHeight - bottomHeight;
if (MathUtil.IsAlmostZero(depth))
return null;
depth = UnitUtil.ScaleLength(depth);
}
else
{
zSpan = new IFCRange();
}
Document doc = element.Document;
double baseWallElevation = 0.0;
ElementId baseLevelId = PlacementSetter.GetBaseLevelIdForElement(element);
if (baseLevelId != ElementId.InvalidElementId)
{
Element baseLevel = doc.GetElement(baseLevelId);
if (baseLevel is Level)
baseWallElevation = (baseLevel as Level).Elevation;
}
IFCAnyHandle axisRep = null;
IFCAnyHandle bodyRep = null;
bool exportingAxis = false;
Curve trimmedCurve = null;
bool exportedAsWallWithAxis = false;
bool exportedBodyDirectly = false;
Curve centerCurve = GetWallAxis(wallElement);
XYZ localXDir = new XYZ(1, 0, 0);
XYZ localYDir = new XYZ(0, 1, 0);
XYZ localZDir = new XYZ(0, 0, 1);
XYZ localOrig = new XYZ(0, 0, 0);
double eps = MathUtil.Eps();
if (centerCurve != null)
{
Curve baseCurve = GetWallAxisAtBaseHeight(wallElement);
trimmedCurve = GetWallTrimmedCurve(wallElement, baseCurve);
IFCRange curveBounds;
XYZ oldOrig;
GeometryUtil.GetAxisAndRangeFromCurve(trimmedCurve, out curveBounds, out localXDir, out oldOrig);
// Move the curve to the bottom of the geometry or the bottom of the range, which is higher.
if (baseCurve != null)
localOrig = new XYZ(oldOrig.X, oldOrig.Y, validRange ? Math.Max(range.Start, zSpan.Start) : zSpan.Start);
else
localOrig = oldOrig;
double dist = localOrig[2] - oldOrig[2];
if (!MathUtil.IsAlmostZero(dist))
{
XYZ moveVec = new XYZ(0, 0, dist);
trimmedCurve = GeometryUtil.MoveCurve(trimmedCurve, moveVec);
}
localYDir = localZDir.CrossProduct(localXDir);
// ensure that X and Z axes are orthogonal.
double xzDot = localZDir.DotProduct(localXDir);
if (!MathUtil.IsAlmostZero(xzDot))
localXDir = localYDir.CrossProduct(localZDir);
}
else
{
BoundingBoxXYZ boundingBox = element.get_BoundingBox(null);
if (boundingBox != null)
{
XYZ bBoxMin = boundingBox.Min;
XYZ bBoxMax = boundingBox.Max;
if (validRange)
localOrig = new XYZ(bBoxMin.X, bBoxMin.Y, range.Start);
else
localOrig = boundingBox.Min;
XYZ localXDirMax = null;
Transform bTrf = boundingBox.Transform;
XYZ localXDirMax1 = new XYZ(bBoxMax.X, localOrig.Y, localOrig.Z);
localXDirMax1 = bTrf.OfPoint(localXDirMax1);
XYZ localXDirMax2 = new XYZ(localOrig.X, bBoxMax.Y, localOrig.Z);
localXDirMax2 = bTrf.OfPoint(localXDirMax2);
if (localXDirMax1.DistanceTo(localOrig) >= localXDirMax2.DistanceTo(localOrig))
localXDirMax = localXDirMax1;
else
localXDirMax = localXDirMax2;
localXDir = localXDirMax.Subtract(localOrig);
localXDir = localXDir.Normalize();
localYDir = localZDir.CrossProduct(localXDir);
// ensure that X and Z axes are orthogonal.
double xzDot = localZDir.DotProduct(localXDir);
if (!MathUtil.IsAlmostZero(xzDot))
localXDir = localYDir.CrossProduct(localZDir);
}
}
IFCAnyHandle ownerHistory = exporterIFC.GetOwnerHistoryHandle();
Transform orientationTrf = Transform.Identity;
orientationTrf.BasisX = localXDir;
orientationTrf.BasisY = localYDir;
orientationTrf.BasisZ = localZDir;
orientationTrf.Origin = localOrig;
double scaledFootprintArea = 0;
double scaledLength = 0;
using (PlacementSetter setter = PlacementSetter.Create(exporterIFC, element, null, orientationTrf, overrideLevelId))
{
IFCAnyHandle localPlacement = setter.LocalPlacement;
// The local coordinate system of the wall as defined by IFC for IfcWallStandardCase.
Plane wallLCS = new Plane(localXDir, localYDir, localOrig); // project curve to XY plane.
XYZ projDir = XYZ.BasisZ;
// two representations: axis, body.
{
if (!exportParts && (centerCurve != null) && (GeometryUtil.CurveIsLineOrArc(centerCurve)))
{
exportingAxis = true;
string identifierOpt = "Axis"; // IFC2x2 convention
string representationTypeOpt = "Curve2D"; // IFC2x2 convention
IFCGeometryInfo info = IFCGeometryInfo.CreateCurveGeometryInfo(exporterIFC, wallLCS, projDir, false);
ExporterIFCUtils.CollectGeometryInfo(exporterIFC, info, trimmedCurve, XYZ.Zero, true);
IList<IFCAnyHandle> axisItems = info.GetCurves();
if (axisItems.Count == 0)
{
exportingAxis = false;
}
else
{
HashSet<IFCAnyHandle> axisItemSet = new HashSet<IFCAnyHandle>();
foreach (IFCAnyHandle axisItem in axisItems)
axisItemSet.Add(axisItem);
IFCAnyHandle contextOfItemsAxis = exporterIFC.Get3DContextHandle("Axis");
axisRep = RepresentationUtil.CreateShapeRepresentation(exporterIFC, element, catId, contextOfItemsAxis,
identifierOpt, representationTypeOpt, axisItemSet);
}
}
}
IList<IFCExtrusionData> cutPairOpenings = new List<IFCExtrusionData>();
if (!exportParts && exportingWallElement && exportingAxis && trimmedCurve != null)
{
bool isCompletelyClipped;
bodyRep = TryToCreateAsExtrusion(exporterIFC, wallElement, connectedWalls, solids, meshes, baseWallElevation,
catId, centerCurve, trimmedCurve, wallLCS, depth, zSpan, range, setter,
out cutPairOpenings, out isCompletelyClipped, out scaledFootprintArea, out scaledLength);
if (isCompletelyClipped)
return null;
if (!IFCAnyHandleUtil.IsNullOrHasNoValue(bodyRep))
exportedAsWallWithAxis = true;
}
using (IFCExtrusionCreationData extraParams = new IFCExtrusionCreationData())
{
BodyData bodyData = null;
if (!exportedAsWallWithAxis)
{
extraParams.PossibleExtrusionAxes = IFCExtrusionAxes.TryZ; // only allow vertical extrusions!
extraParams.AreInnerRegionsOpenings = true;
BodyExporterOptions bodyExporterOptions = new BodyExporterOptions(true);
// Swept solids are not natively exported as part of CV2.0.
// We have removed the UI toggle for this, so that it is by default false, but keep for possible future use.
if (ExporterCacheManager.ExportOptionsCache.ExportAdvancedSweptSolids)
bodyExporterOptions.TryToExportAsSweptSolid = true;
ElementId overrideMaterialId = ElementId.InvalidElementId;
if (exportingWallElement)
overrideMaterialId = HostObjectExporter.GetFirstLayerMaterialId(wallElement);
if (!exportParts)
{
if ((solids.Count > 0) || (meshes.Count > 0))
{
bodyRep = BodyExporter.ExportBody(exporterIFC, element, catId, overrideMaterialId,
solids, meshes, bodyExporterOptions, extraParams).RepresentationHnd;
}
else
{
IList<GeometryObject> geomElemList = new List<GeometryObject>();
geomElemList.Add(geometryElement);
bodyData = BodyExporter.ExportBody(exporterIFC, element, catId, overrideMaterialId,
geomElemList, bodyExporterOptions, extraParams);
bodyRep = bodyData.RepresentationHnd;
}
if (IFCAnyHandleUtil.IsNullOrHasNoValue(bodyRep))
{
extraParams.ClearOpenings();
return null;
}
}
// We will be able to export as a IfcWallStandardCase as long as we have an axis curve.
XYZ extrDirUsed = XYZ.Zero;
if (extraParams.HasExtrusionDirection)
{
extrDirUsed = extraParams.ExtrusionDirection;
if (MathUtil.IsAlmostEqual(Math.Abs(extrDirUsed[2]), 1.0))
{
if ((solids.Count == 1) && (meshes.Count == 0))
exportedAsWallWithAxis = exportingAxis;
exportedBodyDirectly = true;
}
}
}
IFCAnyHandle prodRep = null;
if (!exportParts)
{
IList<IFCAnyHandle> representations = new List<IFCAnyHandle>();
if (exportingAxis)
representations.Add(axisRep);
representations.Add(bodyRep);
IFCAnyHandle boundingBoxRep = null;
if ((solids.Count > 0) || (meshes.Count > 0))
boundingBoxRep = BoundingBoxExporter.ExportBoundingBox(exporterIFC, solids, meshes, Transform.Identity);
else
boundingBoxRep = BoundingBoxExporter.ExportBoundingBox(exporterIFC, geometryElement, Transform.Identity);
if (boundingBoxRep != null)
representations.Add(boundingBoxRep);
prodRep = IFCInstanceExporter.CreateProductDefinitionShape(file, null, null, representations);
}
ElementId matId = ElementId.InvalidElementId;
string objectType = NamingUtil.CreateIFCObjectName(exporterIFC, element);
IFCAnyHandle wallHnd = null;
string elemGUID = null;
int subElementIndex = ExporterStateManager.GetCurrentRangeIndex();
if (subElementIndex == 0)
elemGUID = GUIDUtil.CreateGUID(element);
else if (subElementIndex <= ExporterStateManager.RangeIndexSetter.GetMaxStableGUIDs())
elemGUID = GUIDUtil.CreateSubElementGUID(element, subElementIndex + (int)IFCGenericSubElements.SplitInstanceStart - 1);
else
elemGUID = GUIDUtil.CreateGUID();
string elemName = NamingUtil.GetNameOverride(element, NamingUtil.GetIFCName(element));
string elemDesc = NamingUtil.GetDescriptionOverride(element, null);
string elemObjectType = NamingUtil.GetObjectTypeOverride(element, objectType);
string elemTag = NamingUtil.GetTagOverride(element, NamingUtil.CreateIFCElementId(element));
string ifcType = IFCValidateEntry.GetValidIFCType(element, null);
// For Foundation and Retaining walls, allow exporting as IfcFooting instead.
bool exportAsFooting = false;
if (exportingWallElement)
{
WallType wallType = wallElement.WallType;
if (wallType != null)
{
int wallFunction;
if (ParameterUtil.GetIntValueFromElement(wallType, BuiltInParameter.FUNCTION_PARAM, out wallFunction) != null)
{
if (wallFunction == (int)WallFunction.Retaining || wallFunction == (int)WallFunction.Foundation)
{
// In this case, allow potential to export foundation and retaining walls as footing.
string enumTypeValue = null;
IFCExportType exportType = ExporterUtil.GetExportType(exporterIFC, wallElement, out enumTypeValue);
if (exportType == IFCExportType.IfcFooting)
exportAsFooting = true;
}
}
}
}
if (exportedAsWallWithAxis)
{
if (exportAsFooting)
{
wallHnd = IFCInstanceExporter.CreateFooting(file, elemGUID, ownerHistory, elemName, elemDesc, elemObjectType,
localPlacement, exportParts ? null : prodRep, elemTag, ifcType);
}
else
{
bool exportAsWall = exportParts;
if (!exportAsWall)
{
// (For Reference View export) If the representation returned earlier is of type Tessellation, create IfcWall instead.
foreach (IFCAnyHandle pRep in IFCAnyHandleUtil.GetRepresentations(prodRep))
{
if (String.Compare(IFCAnyHandleUtil.GetRepresentationType(pRep), "Tessellation") == 0)
{
exportAsWall = true;
break;
}
}
}
if (exportAsWall)
{
wallHnd = IFCInstanceExporter.CreateWall(file, elemGUID, ownerHistory, elemName, elemDesc, elemObjectType,
localPlacement, null, elemTag, ifcType);
}
else
{
wallHnd = IFCInstanceExporter.CreateWallStandardCase(file, elemGUID, ownerHistory, elemName, elemDesc, elemObjectType,
localPlacement, prodRep, elemTag, ifcType);
}
}
if (exportParts)
PartExporter.ExportHostPart(exporterIFC, element, wallHnd, localWrapper, setter, localPlacement, overrideLevelId);
localWrapper.AddElement(element, wallHnd, setter, extraParams, true);
if (!exportParts)
{
OpeningUtil.CreateOpeningsIfNecessary(wallHnd, element, cutPairOpenings, null,
exporterIFC, localPlacement, setter, localWrapper);
if (exportedBodyDirectly)
{
Transform offsetTransform = (bodyData != null) ? bodyData.OffsetTransform : Transform.Identity;
OpeningUtil.CreateOpeningsIfNecessary(wallHnd, element, extraParams, offsetTransform,
exporterIFC, localPlacement, setter, localWrapper);
}
else
{
double scaledWidth = UnitUtil.ScaleLength(wallElement.Width);
OpeningUtil.AddOpeningsToElement(exporterIFC, wallHnd, wallElement, null, scaledWidth, range, setter, localPlacement, localWrapper);
}
}
// export Base Quantities
if (ExporterCacheManager.ExportOptionsCache.ExportBaseQuantities)
{
scaledFootprintArea = MathUtil.AreaIsAlmostZero(scaledFootprintArea) ? extraParams.ScaledArea : scaledFootprintArea;
scaledLength = MathUtil.IsAlmostZero(scaledLength) ? extraParams.ScaledLength : scaledLength;
PropertyUtil.CreateWallBaseQuantities(exporterIFC, wallElement, solids, meshes, wallHnd, scaledLength, depth, scaledFootprintArea);
}
}
else
{
if (exportAsFooting)
{
wallHnd = IFCInstanceExporter.CreateFooting(file, elemGUID, ownerHistory, elemName, elemDesc, elemObjectType,
localPlacement, exportParts ? null : prodRep, elemTag, ifcType);
}
else
{
wallHnd = IFCInstanceExporter.CreateWall(file, elemGUID, ownerHistory, elemName, elemDesc, elemObjectType,
localPlacement, exportParts ? null : prodRep, elemTag, ifcType);
}
if (exportParts)
PartExporter.ExportHostPart(exporterIFC, element, wallHnd, localWrapper, setter, localPlacement, overrideLevelId);
localWrapper.AddElement(element, wallHnd, setter, extraParams, true);
if (!exportParts)
{
// Only export one material for 2x2; for future versions, export the whole list.
if (ExporterCacheManager.ExportOptionsCache.ExportAs2x2 || exportingFamilyInstance)
{
matId = BodyExporter.GetBestMaterialIdFromGeometryOrParameter(solids, meshes, element);
if (matId != ElementId.InvalidElementId)
CategoryUtil.CreateMaterialAssociation(exporterIFC, wallHnd, matId);
}
if (exportingInplaceOpenings)
{
OpeningUtil.AddOpeningsToElement(exporterIFC, wallHnd, famInstWallElem, null, 0.0, range, setter, localPlacement, localWrapper);
}
if (exportedBodyDirectly)
{
Transform offsetTransform = (bodyData != null) ? bodyData.OffsetTransform : Transform.Identity;
OpeningUtil.CreateOpeningsIfNecessary(wallHnd, element, extraParams, offsetTransform,
exporterIFC, localPlacement, setter, localWrapper);
}
}
}
ElementId wallLevelId = (validRange) ? setter.LevelId : ElementId.InvalidElementId;
if ((exportingWallElement || exportingFaceWall) && !exportParts)
{
HostObject hostObject = null;
if (exportingWallElement)
hostObject = wallElement;
else
hostObject = faceWall;
if (!ExporterCacheManager.ExportOptionsCache.ExportAs2x2 || exportedAsWallWithAxis)
HostObjectExporter.ExportHostObjectMaterials(exporterIFC, hostObject, localWrapper.GetAnElement(),
geometryElement, localWrapper, wallLevelId, Toolkit.IFCLayerSetDirection.Axis2, !exportedAsWallWithAxis);
}
ExportWallType(exporterIFC, localWrapper, wallHnd, element, matId, exportedAsWallWithAxis, exportAsFooting);
SpaceBoundingElementUtil.RegisterSpaceBoundingElementHandle(exporterIFC, wallHnd, element.Id, wallLevelId);
tr.Commit();
return wallHnd;
}
}
}
}
}
/// <summary>
/// Main implementation to export walls.
/// </summary>
/// <param name="exporterIFC">
/// The ExporterIFC object.
/// </param>
/// <param name="element">
/// The element.
/// </param>
/// <param name="geometryElement">
/// The geometry element.
/// </param>
/// <param name="origWrapper">
/// The ProductWrapper.
/// </param>
/// <param name="overrideLevelId">
/// The level id.
/// </param>
/// <param name="range">
/// The range to be exported for the element.
/// </param>
/// <returns>
/// The exported wall handle.
/// </returns>
public static IFCAnyHandle ExportWallBase(ExporterIFC exporterIFC, Element element, GeometryElement geometryElement,
ProductWrapper origWrapper, ElementId overrideLevelId, IFCRange range)
{
IFCFile file = exporterIFC.GetFile();
using (IFCTransaction tr = new IFCTransaction(file))
{
using (ProductWrapper localWrapper = ProductWrapper.Create(origWrapper))
{
ElementId catId = CategoryUtil.GetSafeCategoryId(element);
Wall wallElement = element as Wall;
FamilyInstance famInstWallElem = element as FamilyInstance;
FaceWall faceWall = element as FaceWall;
if (wallElement == null && famInstWallElem == null && faceWall == null)
return null;
if (wallElement != null && IsWallCompletelyClipped(wallElement, exporterIFC, range))
return null;
// get global values.
Document doc = element.Document;
double scale = exporterIFC.LinearScale;
IFCAnyHandle ownerHistory = exporterIFC.GetOwnerHistoryHandle();
IFCAnyHandle contextOfItemsAxis = exporterIFC.Get3DContextHandle("Axis");
IFCAnyHandle contextOfItemsBody = exporterIFC.Get3DContextHandle("Body");
IFCRange zSpan = new IFCRange();
double depth = 0.0;
bool validRange = (range != null && !MathUtil.IsAlmostZero(range.Start - range.End));
bool exportParts = PartExporter.CanExportParts(element);
if (exportParts && !PartExporter.CanExportElementInPartExport(element, validRange ? overrideLevelId : element.Level.Id, validRange))
return null;
// get bounding box height so that we can subtract out pieces properly.
// only for Wall, not FamilyInstance.
if (wallElement != null && geometryElement != null)
{
BoundingBoxXYZ boundingBox = element.get_BoundingBox(null);
if (boundingBox == null)
return null;
zSpan = new IFCRange(boundingBox.Min.Z, boundingBox.Max.Z);
// if we have a top clipping plane, modify depth accordingly.
double bottomHeight = validRange ? Math.Max(zSpan.Start, range.Start) : zSpan.Start;
double topHeight = validRange ? Math.Min(zSpan.End, range.End) : zSpan.End;
depth = topHeight - bottomHeight;
if (MathUtil.IsAlmostZero(depth))
return null;
depth *= scale;
}
IFCAnyHandle axisRep = null;
IFCAnyHandle bodyRep = null;
bool exportingAxis = false;
Curve curve = null;
bool exportedAsWallWithAxis = false;
bool exportedBodyDirectly = false;
bool exportingInplaceOpenings = false;
Curve centerCurve = GetWallAxis(wallElement);
XYZ localXDir = new XYZ(1, 0, 0);
XYZ localYDir = new XYZ(0, 1, 0);
XYZ localZDir = new XYZ(0, 0, 1);
XYZ localOrig = new XYZ(0, 0, 0);
double eps = MathUtil.Eps();
if (centerCurve != null)
{
Curve baseCurve = GetWallAxisAtBaseHeight(wallElement);
curve = GetWallTrimmedCurve(wallElement, baseCurve);
IFCRange curveBounds;
XYZ oldOrig;
GeometryUtil.GetAxisAndRangeFromCurve(curve, out curveBounds, out localXDir, out oldOrig);
localOrig = oldOrig;
if (baseCurve != null)
{
if (!validRange || (MathUtil.IsAlmostEqual(range.Start, zSpan.Start)))
{
XYZ newOrig = baseCurve.Evaluate(curveBounds.Start, false);
if (!validRange && (zSpan.Start < newOrig[2] - eps))
localOrig = new XYZ(localOrig.X, localOrig.Y, zSpan.Start);
else
localOrig = new XYZ(localOrig.X, localOrig.Y, newOrig[2]);
}
else
{
localOrig = new XYZ(localOrig.X, localOrig.Y, range.Start);
}
}
double dist = localOrig[2] - oldOrig[2];
if (!MathUtil.IsAlmostZero(dist))
{
XYZ moveVec = new XYZ(0, 0, dist);
curve = GeometryUtil.MoveCurve(curve, moveVec);
}
localYDir = localZDir.CrossProduct(localXDir);
// ensure that X and Z axes are orthogonal.
double xzDot = localZDir.DotProduct(localXDir);
if (!MathUtil.IsAlmostZero(xzDot))
localXDir = localYDir.CrossProduct(localZDir);
}
else
{
BoundingBoxXYZ boundingBox = element.get_BoundingBox(null);
if (boundingBox != null)
{
XYZ bBoxMin = boundingBox.Min;
XYZ bBoxMax = boundingBox.Max;
if (validRange)
localOrig = new XYZ(bBoxMin.X, bBoxMin.Y, range.Start);
else
localOrig = boundingBox.Min;
XYZ localXDirMax = null;
Transform bTrf = boundingBox.Transform;
XYZ localXDirMax1 = new XYZ(bBoxMax.X, localOrig.Y, localOrig.Z);
localXDirMax1 = bTrf.OfPoint(localXDirMax1);
XYZ localXDirMax2 = new XYZ(localOrig.X, bBoxMax.Y, localOrig.Z);
localXDirMax2 = bTrf.OfPoint(localXDirMax2);
if (localXDirMax1.DistanceTo(localOrig) >= localXDirMax2.DistanceTo(localOrig))
localXDirMax = localXDirMax1;
else
localXDirMax = localXDirMax2;
localXDir = localXDirMax.Subtract(localOrig);
localXDir = localXDir.Normalize();
localYDir = localZDir.CrossProduct(localXDir);
// ensure that X and Z axes are orthogonal.
double xzDot = localZDir.DotProduct(localXDir);
if (!MathUtil.IsAlmostZero(xzDot))
localXDir = localYDir.CrossProduct(localZDir);
}
}
Transform orientationTrf = Transform.Identity;
orientationTrf.BasisX = localXDir;
orientationTrf.BasisY = localYDir;
orientationTrf.BasisZ = localZDir;
orientationTrf.Origin = localOrig;
using (IFCPlacementSetter setter = IFCPlacementSetter.Create(exporterIFC, element, null, orientationTrf, overrideLevelId))
{
IFCAnyHandle localPlacement = setter.GetPlacement();
Plane plane = new Plane(localXDir, localYDir, localOrig); // project curve to XY plane.
XYZ projDir = XYZ.BasisZ;
// two representations: axis, body.
{
if (!exportParts && (centerCurve != null) && (GeometryUtil.CurveIsLineOrArc(centerCurve)))
{
exportingAxis = true;
string identifierOpt = "Axis"; // IFC2x2 convention
string representationTypeOpt = "Curve2D"; // IFC2x2 convention
IFCGeometryInfo info = IFCGeometryInfo.CreateCurveGeometryInfo(exporterIFC, plane, projDir, false);
ExporterIFCUtils.CollectGeometryInfo(exporterIFC, info, curve, XYZ.Zero, true);
IList<IFCAnyHandle> axisItems = info.GetCurves();
if (axisItems.Count == 0)
{
exportingAxis = false;
}
else
{
HashSet<IFCAnyHandle> axisItemSet = new HashSet<IFCAnyHandle>();
foreach (IFCAnyHandle axisItem in axisItems)
axisItemSet.Add(axisItem);
axisRep = RepresentationUtil.CreateShapeRepresentation(exporterIFC, element, catId, contextOfItemsAxis,
identifierOpt, representationTypeOpt, axisItemSet);
}
}
}
IList<IFCExtrusionData> cutPairOpenings = new List<IFCExtrusionData>();
Document document = element.Document;
IList<Solid> solids = new List<Solid>();
IList<Mesh> meshes = new List<Mesh>();
if (!exportParts && wallElement != null && exportingAxis && curve != null)
{
SolidMeshGeometryInfo solidMeshInfo =
(range == null) ? GeometryUtil.GetSplitSolidMeshGeometry(geometryElement) :
GeometryUtil.GetSplitClippedSolidMeshGeometry(geometryElement, range);
solids = solidMeshInfo.GetSolids();
meshes = solidMeshInfo.GetMeshes();
if (solids.Count == 0 && meshes.Count == 0)
return null;
bool useNewCode = false;
if (useNewCode && solids.Count == 1 && meshes.Count == 0)
{
bool completelyClipped;
bodyRep = ExtrusionExporter.CreateExtrusionWithClipping(exporterIFC, wallElement, catId, solids[0],
plane, projDir, range, out completelyClipped);
if (completelyClipped)
return null;
if (!IFCAnyHandleUtil.IsNullOrHasNoValue(bodyRep))
{
exportedAsWallWithAxis = true;
exportedBodyDirectly = true;
}
else
{
exportedAsWallWithAxis = false;
exportedBodyDirectly = false;
}
}
if (!exportedAsWallWithAxis)
{
// Fallback - use native routines to try to export wall.
bool isCompletelyClipped;
bodyRep = FallbackTryToCreateAsExtrusion(exporterIFC, wallElement, solidMeshInfo,
catId, curve, plane, depth, zSpan, range, setter,
out cutPairOpenings, out isCompletelyClipped);
if (isCompletelyClipped)
return null;
if (!IFCAnyHandleUtil.IsNullOrHasNoValue(bodyRep))
exportedAsWallWithAxis = true;
}
}
using (IFCExtrusionCreationData extraParams = new IFCExtrusionCreationData())
{
if (!exportedAsWallWithAxis)
{
SolidMeshGeometryInfo solidMeshCapsule = null;
if (wallElement != null || faceWall != null)
{
if (validRange)
{
solidMeshCapsule = GeometryUtil.GetSplitClippedSolidMeshGeometry(geometryElement, range);
}
else
{
solidMeshCapsule = GeometryUtil.GetSplitSolidMeshGeometry(geometryElement);
}
if (solidMeshCapsule.SolidsCount() == 0 && solidMeshCapsule.MeshesCount() == 0)
{
return null;
}
}
else
{
GeometryElement geomElemToUse = GetGeometryFromInplaceWall(famInstWallElem);
if (geomElemToUse != null)
{
exportingInplaceOpenings = true;
}
else
{
exportingInplaceOpenings = false;
geomElemToUse = geometryElement;
}
Transform trf = Transform.Identity;
if (geomElemToUse != geometryElement)
trf = famInstWallElem.GetTransform();
solidMeshCapsule = GeometryUtil.GetSplitSolidMeshGeometry(geomElemToUse, trf);
}
solids = solidMeshCapsule.GetSolids();
meshes = solidMeshCapsule.GetMeshes();
extraParams.PossibleExtrusionAxes = IFCExtrusionAxes.TryZ; // only allow vertical extrusions!
extraParams.AreInnerRegionsOpenings = true;
BodyExporterOptions bodyExporterOptions = new BodyExporterOptions(true);
// Swept solids are not natively exported as part of CV2.0. However, we will add UI to allow a user
// to switch of advanced swept solid support.
if (ExporterCacheManager.ExportOptionsCache.ExportAdvancedSweptSolids)
bodyExporterOptions.TryToExportAsSweptSolid = true;
ElementId overrideMaterialId = ElementId.InvalidElementId;
if (wallElement != null)
overrideMaterialId = HostObjectExporter.GetFirstLayerMaterialId(wallElement);
if (!exportParts)
{
if ((solids.Count > 0) || (meshes.Count > 0))
{
bodyRep = BodyExporter.ExportBody(exporterIFC, element, catId, overrideMaterialId,
solids, meshes, bodyExporterOptions, extraParams).RepresentationHnd;
}
else
{
IList<GeometryObject> geomElemList = new List<GeometryObject>();
geomElemList.Add(geometryElement);
BodyData bodyData = BodyExporter.ExportBody(exporterIFC, element, catId, overrideMaterialId,
geomElemList, bodyExporterOptions, extraParams);
bodyRep = bodyData.RepresentationHnd;
}
if (IFCAnyHandleUtil.IsNullOrHasNoValue(bodyRep))
{
extraParams.ClearOpenings();
return null;
}
}
// We will be able to export as a IfcWallStandardCase as long as we have an axis curve.
XYZ extrDirUsed = XYZ.Zero;
if (extraParams.HasExtrusionDirection)
{
extrDirUsed = extraParams.ExtrusionDirection;
if (MathUtil.IsAlmostEqual(Math.Abs(extrDirUsed[2]), 1.0))
{
if ((solids.Count == 1) && (meshes.Count == 0))
exportedAsWallWithAxis = exportingAxis;
exportedBodyDirectly = true;
}
}
}
IFCAnyHandle prodRep = null;
if (!exportParts)
{
IList<IFCAnyHandle> representations = new List<IFCAnyHandle>();
if (exportingAxis)
representations.Add(axisRep);
representations.Add(bodyRep);
IFCAnyHandle boundingBoxRep = null;
if ((solids.Count > 0) || (meshes.Count > 0))
boundingBoxRep = BoundingBoxExporter.ExportBoundingBox(exporterIFC, solids, meshes, Transform.Identity);
else
boundingBoxRep = BoundingBoxExporter.ExportBoundingBox(exporterIFC, geometryElement, Transform.Identity);
if (boundingBoxRep != null)
representations.Add(boundingBoxRep);
prodRep = IFCInstanceExporter.CreateProductDefinitionShape(file, null, null, representations);
}
ElementId matId = ElementId.InvalidElementId;
string objectType = NamingUtil.CreateIFCObjectName(exporterIFC, element);
IFCAnyHandle wallHnd = null;
string elemGUID = (validRange) ? GUIDUtil.CreateGUID() : GUIDUtil.CreateGUID(element);
string elemName = NamingUtil.GetNameOverride(element, NamingUtil.GetIFCName(element));
string elemDesc = NamingUtil.GetDescriptionOverride(element, null);
string elemObjectType = NamingUtil.GetObjectTypeOverride(element, objectType);
string elemTag = NamingUtil.GetTagOverride(element, NamingUtil.CreateIFCElementId(element));
if (exportedAsWallWithAxis)
{
if (exportParts)
wallHnd = IFCInstanceExporter.CreateWall(file, elemGUID, ownerHistory, elemName, elemDesc, elemObjectType,
localPlacement, null, elemTag);
else
wallHnd = IFCInstanceExporter.CreateWallStandardCase(file, elemGUID, ownerHistory, elemName, elemDesc, elemObjectType,
localPlacement, prodRep, elemTag);
if (exportParts)
PartExporter.ExportHostPart(exporterIFC, element, wallHnd, localWrapper, setter, localPlacement, overrideLevelId);
localWrapper.AddElement(wallHnd, setter, extraParams, true);
if (!exportParts)
{
OpeningUtil.CreateOpeningsIfNecessary(wallHnd, element, cutPairOpenings, exporterIFC, localPlacement, setter, localWrapper);
if (exportedBodyDirectly)
{
OpeningUtil.CreateOpeningsIfNecessary(wallHnd, element, extraParams, exporterIFC, localPlacement, setter, localWrapper);
}
else
{
ICollection<IFCAnyHandle> beforeOpenings = localWrapper.GetAllObjects();
double scaledWidth = wallElement.Width * scale;
ExporterIFCUtils.AddOpeningsToElement(exporterIFC, wallHnd, wallElement, scaledWidth, range, setter, localPlacement, localWrapper.ToNative());
ICollection<IFCAnyHandle> afterOpenings = localWrapper.GetAllObjects();
if (beforeOpenings.Count != afterOpenings.Count)
{
foreach (IFCAnyHandle before in beforeOpenings)
afterOpenings.Remove(before);
foreach (IFCAnyHandle potentiallyBadOpening in afterOpenings)
{
PotentiallyCorrectOpeningOrientationAndOpeningType(potentiallyBadOpening, localPlacement, scaledWidth);
}
}
}
}
// export Base Quantities
if (ExporterCacheManager.ExportOptionsCache.ExportBaseQuantities)
{
CreateWallBaseQuantities(exporterIFC, wallElement, wallHnd, depth);
}
}
else
{
wallHnd = IFCInstanceExporter.CreateWall(file, elemGUID, ownerHistory, elemName, elemDesc, elemObjectType,
localPlacement, exportParts ? null : prodRep, elemTag);
if (exportParts)
PartExporter.ExportHostPart(exporterIFC, element, wallHnd, localWrapper, setter, localPlacement, overrideLevelId);
localWrapper.AddElement(wallHnd, setter, extraParams, true);
// Only export one material for 2x2; for future versions, export the whole list.
if ((exporterIFC.ExportAs2x2 || famInstWallElem != null) && !exportParts)
{
matId = BodyExporter.GetBestMaterialIdFromGeometryOrParameter(solids, meshes, element);
if (matId != ElementId.InvalidElementId)
CategoryUtil.CreateMaterialAssociation(doc, exporterIFC, wallHnd, matId);
}
if (!exportParts)
{
if (exportingInplaceOpenings)
{
ExporterIFCUtils.AddOpeningsToElement(exporterIFC, wallHnd, famInstWallElem, 0.0, range, setter, localPlacement, localWrapper.ToNative());
}
if (exportedBodyDirectly)
OpeningUtil.CreateOpeningsIfNecessary(wallHnd, element, extraParams, exporterIFC, localPlacement, setter, localWrapper);
}
}
PropertyUtil.CreateInternalRevitPropertySets(exporterIFC, element, localWrapper);
ElementId wallLevelId = (validRange) ? setter.LevelId : ElementId.InvalidElementId;
if ((wallElement != null || faceWall != null) && !exportParts)
{
HostObject hostObject = null;
if (wallElement != null)
hostObject = wallElement;
else
hostObject = faceWall;
if (!exporterIFC.ExportAs2x2 || exportedAsWallWithAxis) //will move this check into ExportHostObject
HostObjectExporter.ExportHostObjectMaterials(exporterIFC, hostObject, localWrapper.GetAnElement(),
geometryElement, localWrapper, wallLevelId, Toolkit.IFCLayerSetDirection.Axis2);
}
ExportWallType(exporterIFC, wallHnd, element, matId,exportedAsWallWithAxis);
exporterIFC.RegisterSpaceBoundingElementHandle(wallHnd, element.Id, wallLevelId);
tr.Commit();
return wallHnd;
}
}
}
}
}
public override Value Evaluate(FSharpList<Value> args)
{
var curves = ((Value.List)args[0]).Item.Select(
x => ((Curve)((Value.Container)x).Item)).ToList();
List<Curve> curvesWithFlip = new List<Curve>();
bool bStart = true;
XYZ prevEnd = new XYZ();
double tolMax = 0.0001;
double tolMin = 0.00001;
foreach (Curve c in curves)
{
if (!bStart)
{
XYZ thisEnd = c.Evaluate(1.0, true);
XYZ thisStart = c.Evaluate(0.0, true);
double thisDist = thisStart.DistanceTo(prevEnd);
if (thisDist > tolMax && thisEnd.DistanceTo(prevEnd) < tolMin && (c is Line))
{
prevEnd = thisStart;
Curve flippedCurve = /* Line.CreateBound */ dynRevitSettings.Revit.Application.Create.NewLineBound(thisEnd, thisStart);
curvesWithFlip.Add(flippedCurve);
continue;
}
}
else
{
bStart = false;
prevEnd = c.Evaluate(1.0, true);
if (curves.Count > 1)
{
XYZ nextStart = curves[1].Evaluate(0.0, true);
double thisDist = prevEnd.DistanceTo(nextStart);
if (thisDist > tolMax)
{
XYZ nextEnd = curves[1].Evaluate(1.0, true);
if (nextEnd.DistanceTo(prevEnd) > tolMax)
{
XYZ thisStart = c.Evaluate(0.0, true);
if (thisStart.DistanceTo(nextEnd) < tolMin || thisStart.DistanceTo(nextStart) < tolMin)
{
if (c is Line)
{
Curve flippedCurve = /* Line.CreateBound */ dynRevitSettings.Revit.Application.Create.NewLineBound(prevEnd, thisStart);
prevEnd = thisStart;
curvesWithFlip.Add(flippedCurve);
continue;
}
}
}
}
}
}
prevEnd = c.Evaluate(1.0, true);
curvesWithFlip.Add(c);
}
Autodesk.Revit.DB.CurveLoop result = Autodesk.Revit.DB.CurveLoop.Create(curvesWithFlip);
return Value.NewContainer(result);
}
public static Line CreateLineSafe(this Document doc, XYZ p1, XYZ p2)
{
if (p1.DistanceTo(p2) > doc.Application.ShortCurveTolerance)
{
return Line.CreateBound(p1, p2);
}
return null;
}
