public static BoundaryConditionBase DF_Init(
IEnumerable <SpatialObjectWrapper> objects,
RVT.Curve curve,
SpatialObjectWrapper sow,
bool allowAdiabatic)
{
var adjacentRoomName = string.Empty;
var adjacentCurveIndex = -1;
foreach (var so in objects)
{
if (adjacentCurveIndex != -1 && adjacentRoomName != null)
{
break;
}
var boundarySegments = so.Room2D.FloorBoundary.GetCurves(so.Level.Elevation);
for (var i = 0; i < boundarySegments.Count; i++)
{
var c = boundarySegments[i];
if (!c.OverlapsWithIn2D(curve))
{
continue;
}
adjacentCurveIndex = i;
adjacentRoomName = so.Room2D.Identifier;
break;
}
}
if (adjacentCurveIndex != -1 && !string.IsNullOrWhiteSpace(adjacentRoomName))
{
// (Konrad) We found a matching Surface Boundary Condition.
var bConditionObj = new Tuple <string, string, string>(string.Empty, adjacentCurveIndex.ToString(), adjacentRoomName);
return(new Surface(bConditionObj));
}
if (!allowAdiabatic)
{
return(new Outdoors());
}
// (Konrad) We can try assigning Adiabatic and Outdoors.
var direction = curve is RVT.Line
? curve.ComputeDerivatives(0, true).BasisX.Normalize()
: (curve.GetEndPoint(1) - curve.GetEndPoint(0)).Normalize();
var perpendicular = RVT.XYZ.BasisZ.CrossProduct(direction).Multiply(2);
var start = curve.GetEndPoint(0);
var end = curve.GetEndPoint(1);
var midPoint = new RVT.XYZ((start.X + end.X) / 2, (start.Y + end.Y) / 2, start.Z + 1);
var outPt = midPoint + perpendicular;
var doc = sow.Self.Document;
var phases = doc.Phases;
var room = phases.Cast <RVT.Phase>().Select(x => doc.GetRoomAtPoint(outPt, x)).FirstOrDefault(x => x != null);
if (room != null && room.Id != sow.Self.Id)
{
return(new Adiabatic());
}
var inPt = midPoint + perpendicular.Negate();
room = phases.Cast <RVT.Phase>().Select(x => doc.GetRoomAtPoint(inPt, x)).FirstOrDefault(x => x != null);
if (room != null && room.Id != sow.Self.Id)
{
return(new Adiabatic());
}
// (Konrad) We can't find the Room adjacent to this Curve.
return(new Outdoors());
}
