public override ISurface GetCanonicalForm(double precision, BoundingRect?bounds)
{
ICurve testWith = basisCurve;
if (basisCurve is BSpline bsp)
{
if (bsp.GetSimpleCurve(precision, out ICurve simpleCurve))
{
testWith = simpleCurve;
}
}
if (testWith is Ellipse elli && elli.IsCircle)
{
double r = (elli).Radius;
if (Precision.SameDirection(elli.Plane.Normal, this.direction, false))
{
CylindricalSurface cs = new CylindricalSurface(elli.Center, elli.MajorAxis, elli.MinorAxis, elli.Plane.Normal);
GeoVector n1 = this.GetNormal(this.PositionOf(elli.StartPoint));
GeoVector n2 = cs.GetNormal(cs.PositionOf(elli.StartPoint));
if (n1 * n2 < 0)
{
cs.ReverseOrientation();
}
return(cs);
}
}
public static dynamic GetTSObject(CylindricalSurface dynObject)
{
if (dynObject is null)
{
return(null);
}
return(dynObject.teklaObject);
}
/// <summary>
/// 幾何 -> 固體 -> 表面 -> 邊
/// Geomerty -> Solid -> surface -> edges
/// </summary>
/// <param name="famulyOfColumns"></param>
private CurveLoop GetFaceEdgelines(FamilyInstance famulyOfColumns)
{
CurveLoop curveLoop = new CurveLoop();
Options opt = new Options();
opt.ComputeReferences = true;
opt.DetailLevel = ViewDetailLevel.Fine;
GeometryElement geomElem = famulyOfColumns.get_Geometry(opt);
if (geomElem != null)
{
/// GeometryElement 包含三個枚舉(GeometryInstance, Solid, Solid)
foreach (var item in geomElem)
{
/// 取得Type為Solid的枚舉
if (item.GetType().Name == "Solid")
{
/// 轉換至Solid型態
Solid solid = item as Solid;
/// 若無面，略過
if (solid.Faces.Size == 0)
{
continue;
}
/// 列舉Solid所有面
foreach (Face face in solid.Faces)
{
/// 轉換至Surface型態
Surface surface = face.GetSurface();
/// 若為平面 else 圓柱面
if (face.GetType().Name == "PlanarFace")
{
Plane plane = surface as Plane;
/// 取得基準面
if (Math.Round(plane.Normal.X, 2) == 0 && Math.Round(plane.Normal.Y, 2) == 0 && Math.Round(plane.Normal.Z, 2) == -1)
{
curveLoop = face.GetEdgesAsCurveLoops()[0];
}
}
else if (face.GetType().Name == "CylindricalFace")
{
CylindricalSurface csf = surface as CylindricalSurface;
}
}
}
}
}
return(curveLoop);
}
public static Surface GetSurface(this Face face)
{
switch (face)
{
case PlanarFace planarFace:
return(Plane.CreateByOriginAndBasis(planarFace.Origin, planarFace.XVector, planarFace.YVector));
case ConicalFace conicalFace:
{
var basisX = conicalFace.get_Radius(0).Normalize();
var basisY = conicalFace.get_Radius(1).Normalize();
var basisZ = conicalFace.Axis.Normalize();
return(ConicalSurface.Create(new Frame(conicalFace.Origin, basisX, basisY, basisZ), conicalFace.HalfAngle));
}
case CylindricalFace cylindricalFace:
{
double radius = cylindricalFace.get_Radius(0).GetLength();
var basisX = cylindricalFace.get_Radius(0).Normalize();
var basisY = cylindricalFace.get_Radius(1).Normalize();
var basisZ = cylindricalFace.Axis.Normalize();
return(CylindricalSurface.Create(new Frame(cylindricalFace.Origin, basisX, basisY, basisZ), radius));
}
case RevolvedFace revolvedFace:
{
var ECStoWCS = new Transform(Transform.Identity)
{
Origin = revolvedFace.Origin,
BasisX = revolvedFace.get_Radius(0).Normalize(),
BasisY = revolvedFace.get_Radius(1).Normalize(),
BasisZ = revolvedFace.Axis.Normalize()
};
var profileInWCS = revolvedFace.Curve.CreateTransformed(ECStoWCS);
return(RevolvedSurface.Create(new Frame(ECStoWCS.Origin, ECStoWCS.BasisX, ECStoWCS.BasisY, ECStoWCS.BasisZ), profileInWCS));
}
case RuledFace ruledFace:
{
var profileCurve0 = ruledFace.get_Curve(0);
var profileCurve1 = ruledFace.get_Curve(1);
return(RuledSurface.Create(profileCurve0, profileCurve1));
}
}
return(null);
}
private void ModifyCylindricalSide_Click(object sender, EventArgs e)
{
ModifyCylindricalSide.Enabled = false;
var geometryEnumerator = bentPlate.Geometry.GetGeometryEnumerator();
CylindricalSurfaceNode cylindricalSection = null;
while (geometryEnumerator.MoveNext())
{
if (geometryEnumerator.Current.GeometryNode is CylindricalSurfaceNode)
{
cylindricalSection = geometryEnumerator.Current.GeometryNode as CylindricalSurfaceNode;
break;
}
}
if (cylindricalSection != null)
{
try
{
Vector endFaceNormal1 = cylindricalSection.Surface.EndFaceNormal1;
Vector endFaceNormal2 = cylindricalSection.Surface.EndFaceNormal2;
LineSegment sideBoundary1 = new LineSegment(new Point(500.0, 4500.0, 0), new Point(2500.0, 4500.0, 0));
LineSegment sideBoundary2 = new LineSegment(new Point(500.0, 6000.0, 1500.0), new Point(2500.0, 6000.0, 1500.0));
CylindricalSurface newCylindricalSurface = new CylindricalSurface(endFaceNormal1, endFaceNormal2, sideBoundary1, sideBoundary2);
BentPlateGeometrySolver solver = new BentPlateGeometrySolver();
var changedGeometry = solver.ModifyCylindricalSurface(bentPlate.Geometry, geometryEnumerator.Current, newCylindricalSurface);
bentPlate.Geometry = changedGeometry;
bentPlate.Modify();
model.CommitChanges();
}
catch (Exception Ex)
{
Console.WriteLine("Exception : ", Ex.ToString());
}
}
}
/// <summary>
/// Create a cylinder to subtract from the cube.
/// </summary>
public BRepBuilder CreateBrepVoid()
{
// Naming convention for faces and edges: we
// assume that x is to the left and pointing down,
// y is horizontal and pointing to the right,
// z is up.
BRepBuilder b = new BRepBuilder(BRepType.Solid);
// The surfaces of the four faces.
Frame basis = new Frame(new XYZ(50, 0, 0), new XYZ(0, 1, 0), new XYZ(-1, 0, 0), new XYZ(0, 0, 1));
CylindricalSurface cylSurf = CylindricalSurface.Create(basis, 40);
Plane top1 = Plane.CreateByNormalAndOrigin(new XYZ(0, 0, 1), new XYZ(0, 0, 100)); // normal points outside the cylinder
Plane bottom1 = Plane.CreateByNormalAndOrigin(new XYZ(0, 0, 1), new XYZ(0, 0, 0)); // normal points inside the cylinder
// Add the four faces
BRepBuilderGeometryId frontCylFaceId = b.AddFace(BRepBuilderSurfaceGeometry.Create(cylSurf, null), false);
BRepBuilderGeometryId backCylFaceId = b.AddFace(BRepBuilderSurfaceGeometry.Create(cylSurf, null), false);
BRepBuilderGeometryId topFaceId = b.AddFace(BRepBuilderSurfaceGeometry.Create(top1, null), false);
BRepBuilderGeometryId bottomFaceId = b.AddFace(BRepBuilderSurfaceGeometry.Create(bottom1, null), true);
// Geometry for the four semi-circular edges and two vertical linear edges
BRepBuilderEdgeGeometry frontEdgeBottom = BRepBuilderEdgeGeometry.Create(Arc.Create(new XYZ(10, 0, 0), new XYZ(90, 0, 0), new XYZ(50, 40, 0)));
BRepBuilderEdgeGeometry backEdgeBottom = BRepBuilderEdgeGeometry.Create(Arc.Create(new XYZ(90, 0, 0), new XYZ(10, 0, 0), new XYZ(50, -40, 0)));
BRepBuilderEdgeGeometry frontEdgeTop = BRepBuilderEdgeGeometry.Create(Arc.Create(new XYZ(10, 0, 100), new XYZ(90, 0, 100), new XYZ(50, 40, 100)));
BRepBuilderEdgeGeometry backEdgeTop = BRepBuilderEdgeGeometry.Create(Arc.Create(new XYZ(10, 0, 100), new XYZ(90, 0, 100), new XYZ(50, -40, 100)));
BRepBuilderEdgeGeometry linearEdgeFront = BRepBuilderEdgeGeometry.Create(new XYZ(90, 0, 0), new XYZ(90, 0, 100));
BRepBuilderEdgeGeometry linearEdgeBack = BRepBuilderEdgeGeometry.Create(new XYZ(10, 0, 0), new XYZ(10, 0, 100));
// Add the six edges
BRepBuilderGeometryId frontEdgeBottomId = b.AddEdge(frontEdgeBottom);
BRepBuilderGeometryId frontEdgeTopId = b.AddEdge(frontEdgeTop);
BRepBuilderGeometryId linearEdgeFrontId = b.AddEdge(linearEdgeFront);
BRepBuilderGeometryId linearEdgeBackId = b.AddEdge(linearEdgeBack);
BRepBuilderGeometryId backEdgeBottomId = b.AddEdge(backEdgeBottom);
BRepBuilderGeometryId backEdgeTopId = b.AddEdge(backEdgeTop);
// Loops of the four faces
BRepBuilderGeometryId loopId_Top = b.AddLoop(topFaceId);
BRepBuilderGeometryId loopId_Bottom = b.AddLoop(bottomFaceId);
BRepBuilderGeometryId loopId_Front = b.AddLoop(frontCylFaceId);
BRepBuilderGeometryId loopId_Back = b.AddLoop(backCylFaceId);
// Add coedges for the loop of the front face
b.AddCoEdge(loopId_Front, linearEdgeBackId, false);
b.AddCoEdge(loopId_Front, frontEdgeTopId, false);
b.AddCoEdge(loopId_Front, linearEdgeFrontId, true);
b.AddCoEdge(loopId_Front, frontEdgeBottomId, true);
b.FinishLoop(loopId_Front);
b.FinishFace(frontCylFaceId);
// Add coedges for the loop of the back face
b.AddCoEdge(loopId_Back, linearEdgeBackId, true);
b.AddCoEdge(loopId_Back, backEdgeBottomId, true);
b.AddCoEdge(loopId_Back, linearEdgeFrontId, false);
b.AddCoEdge(loopId_Back, backEdgeTopId, true);
b.FinishLoop(loopId_Back);
b.FinishFace(backCylFaceId);
// Add coedges for the loop of the top face
b.AddCoEdge(loopId_Top, backEdgeTopId, false);
b.AddCoEdge(loopId_Top, frontEdgeTopId, true);
b.FinishLoop(loopId_Top);
b.FinishFace(topFaceId);
// Add coedges for the loop of the bottom face
b.AddCoEdge(loopId_Bottom, frontEdgeBottomId, false);
b.AddCoEdge(loopId_Bottom, backEdgeBottomId, false);
b.FinishLoop(loopId_Bottom);
b.FinishFace(bottomFaceId);
b.Finish();
return(b);
}
protected IFCCylindricalSurface(IFCAnyHandle ifcCylindricalSurface)
{
Process(ifcCylindricalSurface);
m_CylindricalSurface = CylindricalSurface.Create(new Frame(Position.Origin, Position.BasisX, Position.BasisY, Position.BasisZ), Radius);
}
/// <summary>
/// 创建圆柱
/// </summary>
public static void CreateCylinder(Document doc, Material mat)
{
// Naming convention for faces and edges: we assume that x is to the left and pointing down, y is horizontal and pointing to the right, z is up
BRepBuilder brepBuilder = new BRepBuilder(BRepType.Solid);
// The surfaces of the four faces.
Frame basis = new Frame(new XYZ(5, -10, 0), new XYZ(0, 1, 0), new XYZ(-1, 0, 0), new XYZ(0, 0, 1));
// Note that we do not have to create two identical surfaces here. The same surface can be used for multiple faces,
// since BRepBuilderSurfaceGeometry::Create() copies the input surface.
// Thus, potentially we could have only one surface here,
// but we must create at least two faces below to account for periodicity.
CylindricalSurface frontCylSurf = CylindricalSurface.Create(basis, 5);
CylindricalSurface backCylSurf = CylindricalSurface.Create(basis, 5);
Plane top = Plane.CreateByNormalAndOrigin(new XYZ(0, 0, 1), new XYZ(0, 0, 100)); // normal points outside the cylinder
Plane bottom = Plane.CreateByNormalAndOrigin(new XYZ(0, 0, 1), new XYZ(0, 0, 0)); // normal points inside the cylinder
// Note that the alternating of "inside/outside" matches the alternating of "true/false" in the next block that defines faces.
// There must be a correspondence to ensure that all faces are correctly oriented to point out of the solid.
// Add the four faces
BRepBuilderGeometryId frontCylFaceId = brepBuilder.AddFace(BRepBuilderSurfaceGeometry.Create(frontCylSurf, null), false);
BRepBuilderGeometryId backCylFaceId = brepBuilder.AddFace(BRepBuilderSurfaceGeometry.Create(backCylSurf, null), false);
BRepBuilderGeometryId topFaceId = brepBuilder.AddFace(BRepBuilderSurfaceGeometry.Create(top, null), false);
BRepBuilderGeometryId bottomFaceId = brepBuilder.AddFace(BRepBuilderSurfaceGeometry.Create(bottom, null), true);
brepBuilder.SetFaceMaterialId(frontCylFaceId, mat.Id);
brepBuilder.SetFaceMaterialId(backCylFaceId, mat.Id);
// Geometry for the four semi-circular edges and two vertical linear edges
BRepBuilderEdgeGeometry frontEdgeBottom = BRepBuilderEdgeGeometry.Create(Arc.Create(new XYZ(0, -10, 0), new XYZ(10, -10, 0), new XYZ(5, -5, 0)));
BRepBuilderEdgeGeometry backEdgeBottom = BRepBuilderEdgeGeometry.Create(Arc.Create(new XYZ(10, -10, 0), new XYZ(0, -10, 0), new XYZ(5, -15, 0)));
BRepBuilderEdgeGeometry frontEdgeTop = BRepBuilderEdgeGeometry.Create(Arc.Create(new XYZ(0, -10, 100), new XYZ(10, -10, 100), new XYZ(5, -5, 100)));
BRepBuilderEdgeGeometry backEdgeTop = BRepBuilderEdgeGeometry.Create(Arc.Create(new XYZ(0, -10, 100), new XYZ(10, -10, 100), new XYZ(5, -15, 100)));
BRepBuilderEdgeGeometry linearEdgeFront = BRepBuilderEdgeGeometry.Create(new XYZ(10, -10, 0), new XYZ(10, -10, 100));
BRepBuilderEdgeGeometry linearEdgeBack = BRepBuilderEdgeGeometry.Create(new XYZ(0, -10, 0), new XYZ(0, -10, 100));
// Add the six edges
BRepBuilderGeometryId frontEdgeBottomId = brepBuilder.AddEdge(frontEdgeBottom);
BRepBuilderGeometryId frontEdgeTopId = brepBuilder.AddEdge(frontEdgeTop);
BRepBuilderGeometryId linearEdgeFrontId = brepBuilder.AddEdge(linearEdgeFront);
BRepBuilderGeometryId linearEdgeBackId = brepBuilder.AddEdge(linearEdgeBack);
BRepBuilderGeometryId backEdgeBottomId = brepBuilder.AddEdge(backEdgeBottom);
BRepBuilderGeometryId backEdgeTopId = brepBuilder.AddEdge(backEdgeTop);
// Loops of the four faces
BRepBuilderGeometryId loopId_Top = brepBuilder.AddLoop(topFaceId);
BRepBuilderGeometryId loopId_Bottom = brepBuilder.AddLoop(bottomFaceId);
BRepBuilderGeometryId loopId_Front = brepBuilder.AddLoop(frontCylFaceId);
BRepBuilderGeometryId loopId_Back = brepBuilder.AddLoop(backCylFaceId);
// Add coedges for the loop of the front face
brepBuilder.AddCoEdge(loopId_Front, linearEdgeBackId, false);
brepBuilder.AddCoEdge(loopId_Front, frontEdgeTopId, false);
brepBuilder.AddCoEdge(loopId_Front, linearEdgeFrontId, true);
brepBuilder.AddCoEdge(loopId_Front, frontEdgeBottomId, true);
brepBuilder.FinishLoop(loopId_Front);
brepBuilder.FinishFace(frontCylFaceId);
// Add coedges for the loop of the back face
brepBuilder.AddCoEdge(loopId_Back, linearEdgeBackId, true);
brepBuilder.AddCoEdge(loopId_Back, backEdgeBottomId, true);
brepBuilder.AddCoEdge(loopId_Back, linearEdgeFrontId, false);
brepBuilder.AddCoEdge(loopId_Back, backEdgeTopId, true);
brepBuilder.FinishLoop(loopId_Back);
brepBuilder.FinishFace(backCylFaceId);
// Add coedges for the loop of the top face
brepBuilder.AddCoEdge(loopId_Top, backEdgeTopId, false);
brepBuilder.AddCoEdge(loopId_Top, frontEdgeTopId, true);
brepBuilder.FinishLoop(loopId_Top);
brepBuilder.FinishFace(topFaceId);
// Add coedges for the loop of the bottom face
brepBuilder.AddCoEdge(loopId_Bottom, frontEdgeBottomId, false);
brepBuilder.AddCoEdge(loopId_Bottom, backEdgeBottomId, false);
brepBuilder.FinishLoop(loopId_Bottom);
brepBuilder.FinishFace(bottomFaceId);
brepBuilder.Finish();
createDirectShapeElementFromBrepBuilderObject(brepBuilder, "Full cylinder", doc);
}
public CylindricalSurfaceConvertable(Surface surface, IStpModel model)
{
_surface = (CylindricalSurface)surface;
_model = model;
Init();
}
public NonPeriodicCylindricalSurface(CylindricalSurface toSubstitute, double vmin, double vmax)
: base(toSubstitute)
{
// vmin wird so bestimmt, dass es sicher kleiner ist als der zu erwartende v-Bereich
this.vmin = vmin - (vmax - vmin) / 2.0;
}
/// <summary>
/// Инициализация всех дочерних сущности для заданной сущности. Используется рекурсивно для каждого вложенного параметра.
/// </summary>
/// <param name="itemParam">Родительский параметр, для которого необходимо инициализировать параметры</param>
/// <param name="entitiesDictionary">Словарь всех сущностей, полученных из STEP файла. Ключем должен быть номер сущности.</param>
/// <param name="parentNode">Родительский узел дерева TreeView. Инициализация происходит параллельно.</param>
/// <returns>Метод возвращает проинициализированную сущность до самого нижнего уровня.</returns>
private IEntityModel parseItemParam(EntityParam itemParam, Dictionary <int, BaseEntity> entitiesDictionary, TreeNode parentNode)
{
if (mCallback != null)
{
currentProgress += progressStep;
mCallback.extractionStep(currentProgress < 99 ? currentProgress : 99);
}
//Инициализируемый параметр
IEntityModel newParam = null;
//Инициализируемый дочерний узел дерева
TreeNode childNode = null;
//Номер сущности, хранящийся в параметре
int itemNumber;
if (itemParam.value.StartsWith("#") && int.TryParse(itemParam.value.Substring(1), out itemNumber))
{
//Сущность из словаря, получаемая по номеру
BaseEntity nextEntity;
if (entitiesDictionary.TryGetValue(itemNumber, out nextEntity))
{
//Подбор необходимого алгоритма инициализации по имени сущности из STEP файла
switch (nextEntity.Name)
{
//Комментарии для одного алгоритма, далее по аналогии.
case Axis2Placement3D.NAME:
//Создание объекта для соответствующего имени сущности
Axis2Placement3D tempParamA2P3D = new Axis2Placement3D();
//Создания нового узла дерева (узлы деревьев формируются параллельно инициализации сущностей)
childNode = new TreeNode(tempParamA2P3D.StepName);
//Присвоение имени (title) объекту сущности из параметров, полученных парсером из STEP файла
tempParamA2P3D.Name = nextEntity.ParsedParams[0][0].value;
//Добавление соотвествующего узла дерева
childNode.Nodes.Add("Label: " + tempParamA2P3D.Name);
//Рекурсивный вызов метода для инициализации остальных внутренних параметров
tempParamA2P3D.Location = (CartesianPoint)parseItemParam(nextEntity.ParsedParams[1][0], entitiesDictionary, childNode);
tempParamA2P3D.Axis = (Direction)parseItemParam(nextEntity.ParsedParams[2][0], entitiesDictionary, childNode);
tempParamA2P3D.RefDirection = (Direction)parseItemParam(nextEntity.ParsedParams[3][0], entitiesDictionary, childNode);
//Присвоение абстрактной переменной текущей сущности
newParam = tempParamA2P3D;
break;
case ManifoldSolidBrep.NAME:
ManifoldSolidBrep tempParamMSB = new ManifoldSolidBrep();
childNode = new TreeNode(tempParamMSB.StepName);
tempParamMSB.Name = nextEntity.ParsedParams[0][0].value;
childNode.Nodes.Add("Label: " + tempParamMSB.Name);
tempParamMSB.Outer = (ClosedShell)parseItemParam(nextEntity.ParsedParams[1][0], entitiesDictionary, childNode);
newParam = tempParamMSB;
break;
case ClosedShell.NAME:
ClosedShell tempParamCS = new ClosedShell();
childNode = new TreeNode(tempParamCS.StepName);
tempParamCS.Name = nextEntity.ParsedParams[0][0].value;
childNode.Nodes.Add("Label: " + tempParamCS.Name);
tempParamCS.CfsFaces = new List <Face>(nextEntity.ParsedParams[1].Count);
TreeNode childParamNode = new TreeNode("Cfs faces");
childNode.Nodes.Add(childParamNode);
foreach (var itemParamCS in nextEntity.ParsedParams[1])
{
IEntityModel param = parseItemParam(itemParamCS, entitiesDictionary, childParamNode);
tempParamCS.CfsFaces.Add((Face)param);
}
newParam = tempParamCS;
break;
case AdvancedFace.NAME:
AdvancedFace tempParamAF = new AdvancedFace();
childNode = new TreeNode(tempParamAF.StepName);
tempParamAF.Name = nextEntity.ParsedParams[0][0].value;
childNode.Nodes.Add("Label: " + tempParamAF.Name);
tempParamAF.Bounds = new List <FaceBound>(nextEntity.ParsedParams[1].Count);
TreeNode childParamNodeAF = new TreeNode("Bounds");
childNode.Nodes.Add(childParamNodeAF);
foreach (var itemParamAFB in nextEntity.ParsedParams[1])
{
IEntityModel param = parseItemParam(itemParamAFB, entitiesDictionary, childParamNodeAF);
tempParamAF.Bounds.Add((FaceBound)param);
}
tempParamAF.FaceGeometry = (Surface)parseItemParam(nextEntity.ParsedParams[2][0], entitiesDictionary, childNode);
tempParamAF.SameSense = nextEntity.ParsedParams[3][0].value;
childNode.Nodes.Add("Same sense: " + tempParamAF.SameSense);
newParam = tempParamAF;
break;
case FaceBound.NAME:
FaceBound tempParamFB = new FaceBound();
childNode = new TreeNode(tempParamFB.StepName);
tempParamFB.Name = nextEntity.ParsedParams[0][0].value;
childNode.Nodes.Add("Label: " + tempParamFB.Name);
tempParamFB.Bound = (Loop)parseItemParam(nextEntity.ParsedParams[1][0], entitiesDictionary, childNode);
tempParamFB.Orientation = nextEntity.ParsedParams[2][0].value;
childNode.Nodes.Add("Orientation: " + tempParamFB.Orientation);
newParam = tempParamFB;
break;
case FaceOuterBound.NAME:
FaceOuterBound tempParamFOB = new FaceOuterBound();
childNode = new TreeNode(tempParamFOB.StepName);
tempParamFOB.Name = nextEntity.ParsedParams[0][0].value;
childNode.Nodes.Add("Label: " + tempParamFOB.Name);
tempParamFOB.Bound = (Loop)parseItemParam(nextEntity.ParsedParams[1][0], entitiesDictionary, childNode);
tempParamFOB.Orientation = nextEntity.ParsedParams[2][0].value;
childNode.Nodes.Add("Orientation: " + tempParamFOB.Orientation);
newParam = tempParamFOB;
break;
case ConicalSurface.NAME:
ConicalSurface tempParamCoSu = new ConicalSurface();
childNode = new TreeNode(tempParamCoSu.StepName);
tempParamCoSu.Name = nextEntity.ParsedParams[0][0].value;
childNode.Nodes.Add("Label: " + tempParamCoSu.Name);
tempParamCoSu.Position = (Axis2Placement3D)parseItemParam(nextEntity.ParsedParams[1][0], entitiesDictionary, childNode);
tempParamCoSu.Radius = (double)doubleConverter.ConvertFromInvariantString(nextEntity.ParsedParams[2][0].value);
childNode.Nodes.Add("Radius: " + tempParamCoSu.Radius);
tempParamCoSu.SemiAngle = (double)doubleConverter.ConvertFromInvariantString(nextEntity.ParsedParams[3][0].value);
childNode.Nodes.Add("Semi angle: " + tempParamCoSu.SemiAngle);
newParam = tempParamCoSu;
break;
case CylindricalSurface.NAME:
CylindricalSurface tempParamCySu = new CylindricalSurface();
childNode = new TreeNode(tempParamCySu.StepName);
tempParamCySu.Name = nextEntity.ParsedParams[0][0].value;
childNode.Nodes.Add("Label: " + tempParamCySu.Name);
tempParamCySu.Position = (Axis2Placement3D)parseItemParam(nextEntity.ParsedParams[1][0], entitiesDictionary, childNode);
tempParamCySu.Radius = (double)doubleConverter.ConvertFromInvariantString(nextEntity.ParsedParams[2][0].value);
childNode.Nodes.Add("Radius: " + tempParamCySu.Radius);
newParam = tempParamCySu;
break;
case EdgeLoop.NAME:
EdgeLoop tempParamEL = new EdgeLoop();
childNode = new TreeNode(tempParamEL.StepName);
tempParamEL.Name = nextEntity.ParsedParams[0][0].value;
childNode.Nodes.Add("Label: " + tempParamEL.Name);
tempParamEL.EdgeList = new List <OrientedEdge>(nextEntity.ParsedParams[1].Count);
TreeNode childParamNodeEL = new TreeNode("Edge list");
childNode.Nodes.Add(childParamNodeEL);
foreach (var itemParamEL in nextEntity.ParsedParams[1])
{
IEntityModel param = parseItemParam(itemParamEL, entitiesDictionary, childParamNodeEL);
tempParamEL.EdgeList.Add((OrientedEdge)param);
}
newParam = tempParamEL;
break;
case OrientedEdge.NAME:
OrientedEdge tempParamOE = new OrientedEdge();
childNode = new TreeNode(tempParamOE.StepName);
tempParamOE.Name = nextEntity.ParsedParams[0][0].value;
childNode.Nodes.Add("Label: " + tempParamOE.Name);
tempParamOE.EdgeStart = (Vertex)parseItemParam(nextEntity.ParsedParams[1][0], entitiesDictionary, childNode);
tempParamOE.EdgeEnd = (Vertex)parseItemParam(nextEntity.ParsedParams[2][0], entitiesDictionary, childNode);
tempParamOE.EdgeElement = (Edge)parseItemParam(nextEntity.ParsedParams[3][0], entitiesDictionary, childNode);
tempParamOE.Orientation = nextEntity.ParsedParams[4][0].value;
childNode.Nodes.Add("Orientation: " + tempParamOE.Orientation);
newParam = tempParamOE;
break;
case Edge.NAME:
Edge tempParamE = new Edge();
childNode = new TreeNode(tempParamE.StepName);
tempParamE.Name = nextEntity.ParsedParams[0][0].value;
childNode.Nodes.Add("Label: " + tempParamE.Name);
tempParamE.EdgeStart = (Vertex)parseItemParam(nextEntity.ParsedParams[1][0], entitiesDictionary, childNode);
tempParamE.EdgeEnd = (Vertex)parseItemParam(nextEntity.ParsedParams[2][0], entitiesDictionary, childNode);
newParam = tempParamE;
break;
case VertexPoint.NAME:
VertexPoint tempParamVP = new VertexPoint();
childNode = new TreeNode(tempParamVP.StepName);
tempParamVP.Name = nextEntity.ParsedParams[0][0].value;
childNode.Nodes.Add("Label: " + tempParamVP.Name);
tempParamVP.VertexGeometry = (CartesianPoint)parseItemParam(nextEntity.ParsedParams[1][0], entitiesDictionary, childNode);
newParam = tempParamVP;
break;
case CartesianPoint.NAME:
CartesianPoint tempParamCP = new CartesianPoint();
childNode = new TreeNode(tempParamCP.StepName);
tempParamCP.Name = nextEntity.ParsedParams[0][0].value;
childNode.Nodes.Add("Label: " + tempParamCP.Name);
tempParamCP.X = (double)doubleConverter.ConvertFromInvariantString(nextEntity.ParsedParams[1][0].value);
childNode.Nodes.Add("X: " + tempParamCP.X);
tempParamCP.Y = (double)doubleConverter.ConvertFromInvariantString(nextEntity.ParsedParams[1][1].value);
childNode.Nodes.Add("Y: " + tempParamCP.Y);
tempParamCP.Z = (double)doubleConverter.ConvertFromInvariantString(nextEntity.ParsedParams[1][2].value);
childNode.Nodes.Add("Z: " + tempParamCP.Z);
newParam = tempParamCP;
break;
case EdgeCurve.NAME:
EdgeCurve tempParamEC = new EdgeCurve();
childNode = new TreeNode(tempParamEC.StepName);
tempParamEC.Name = nextEntity.ParsedParams[0][0].value;
childNode.Nodes.Add("Label: " + tempParamEC.Name);
tempParamEC.EdgeStart = (Vertex)parseItemParam(nextEntity.ParsedParams[1][0], entitiesDictionary, childNode);
tempParamEC.EdgeEnd = (Vertex)parseItemParam(nextEntity.ParsedParams[2][0], entitiesDictionary, childNode);
tempParamEC.EdgeGeometry = (Curve)parseItemParam(nextEntity.ParsedParams[3][0], entitiesDictionary, childNode);
tempParamEC.SameSense = nextEntity.ParsedParams[4][0].value;
childNode.Nodes.Add("Same sense: " + tempParamEC.SameSense);
newParam = tempParamEC;
break;
case Circle.NAME:
Circle tempParamCi = new Circle();
childNode = new TreeNode(tempParamCi.StepName);
tempParamCi.Name = nextEntity.ParsedParams[0][0].value;
childNode.Nodes.Add("Label: " + tempParamCi.Name);
tempParamCi.Position = (Axis2Placement3D)parseItemParam(nextEntity.ParsedParams[1][0], entitiesDictionary, childNode);
tempParamCi.Radius = (double)doubleConverter.ConvertFromInvariantString(nextEntity.ParsedParams[2][0].value);
childNode.Nodes.Add("Radius: " + tempParamCi.Radius);
newParam = tempParamCi;
break;
case Direction.NAME:
Direction tempParamDi = new Direction();
childNode = new TreeNode(tempParamDi.StepName);
tempParamDi.Name = nextEntity.ParsedParams[0][0].value;
childNode.Nodes.Add("Label: " + tempParamDi.Name);
TreeNode childParamNodeDi = new TreeNode("Direction ratios");
childNode.Nodes.Add(childParamNodeDi);
tempParamDi.DirectionRatios = new List <double>(3);
tempParamDi.DirectionRatios.Add((double)doubleConverter.ConvertFromInvariantString(nextEntity.ParsedParams[1][0].value));
tempParamDi.DirectionRatios.Add((double)doubleConverter.ConvertFromInvariantString(nextEntity.ParsedParams[1][1].value));
tempParamDi.DirectionRatios.Add((double)doubleConverter.ConvertFromInvariantString(nextEntity.ParsedParams[1][2].value));
childParamNodeDi.Nodes.Add(tempParamDi.DirectionRatios[0].ToString());
childParamNodeDi.Nodes.Add(tempParamDi.DirectionRatios[1].ToString());
childParamNodeDi.Nodes.Add(tempParamDi.DirectionRatios[2].ToString());
newParam = tempParamDi;
break;
case Line.NAME:
Line tempParamL = new Line();
childNode = new TreeNode(tempParamL.StepName);
tempParamL.Name = nextEntity.ParsedParams[0][0].value;
childNode.Nodes.Add("Label: " + tempParamL.Name);
tempParamL.Pnt = (CartesianPoint)parseItemParam(nextEntity.ParsedParams[1][0], entitiesDictionary, childNode);
tempParamL.Dir = (Vector)parseItemParam(nextEntity.ParsedParams[2][0], entitiesDictionary, childNode);
newParam = tempParamL;
break;
case Vector.NAME:
Vector tempParamV = new Vector();
childNode = new TreeNode(tempParamV.StepName);
tempParamV.Name = nextEntity.ParsedParams[0][0].value;
childNode.Nodes.Add("Label: " + tempParamV.Name);
tempParamV.Orientation = (Direction)parseItemParam(nextEntity.ParsedParams[1][0], entitiesDictionary, childNode);
tempParamV.Magnitude = (double)doubleConverter.ConvertFromInvariantString(nextEntity.ParsedParams[2][0].value);
childNode.Nodes.Add("Magnitude: " + tempParamV.Magnitude);
newParam = tempParamV;
break;
case Plane.NAME:
Plane tempParamPl = new Plane();
childNode = new TreeNode(tempParamPl.StepName);
tempParamPl.Name = nextEntity.ParsedParams[0][0].value;
childNode.Nodes.Add("Label: " + tempParamPl.Name);
tempParamPl.Position = (Axis2Placement3D)parseItemParam(nextEntity.ParsedParams[1][0], entitiesDictionary, childNode);
newParam = tempParamPl;
break;
case ToroidalSurface.NAME:
ToroidalSurface tempParamTorSu = new ToroidalSurface();
childNode = new TreeNode(tempParamTorSu.StepName);
tempParamTorSu.Name = nextEntity.ParsedParams[0][0].value;
childNode.Nodes.Add("Label: " + tempParamTorSu.Name);
tempParamTorSu.Position = (Axis2Placement3D)parseItemParam(nextEntity.ParsedParams[1][0], entitiesDictionary, childNode);
tempParamTorSu.MajorRadius = (double)doubleConverter.ConvertFromInvariantString(nextEntity.ParsedParams[2][0].value);
childNode.Nodes.Add("MajorRadius: " + tempParamTorSu.MajorRadius);
tempParamTorSu.MinorRadius = (double)doubleConverter.ConvertFromInvariantString(nextEntity.ParsedParams[3][0].value);
childNode.Nodes.Add("MinorRadius: " + tempParamTorSu.MinorRadius);
newParam = tempParamTorSu;
break;
case BoundedSurface.NAME:
BoundedSurface tempParamBoundSu = new BoundedSurface();
childNode = new TreeNode(tempParamBoundSu.StepName);
//tempParamBoundSu.Name = nextEntity.ParsedParams[0][0].value;
childNode.Nodes.Add(/*"Label: " + tempParamBoundSu.Name + */ "[Not implemented]");
newParam = tempParamBoundSu;
break;
default:
//Ошибка генерируется в том случае, если сущность не определена ни одним из алгоритмов => нужно создать новый класс сущности и прописать соответствующей ей алгоритм инициализации.
throw new InvalidDataException("Not found entity: " + nextEntity.Name);
}
//Добавление в родительский узел TreeView нового дочернего узла, проинициализированного в алгоритмах выше.
parentNode.Nodes.Add(childNode);
}
}
return(newParam);
}
