public void DifferenceWhichSplitsVolumeSucceeds()
{
this.Name = nameof(DifferenceWhichSplitsVolumeSucceeds);
var s1 = new Extrude(Polygon.Rectangle(2, 2), 2, Vector3.ZAxis, false);
var s2 = new Extrude(Polygon.Rectangle(0.5, 4), 6, Vector3.ZAxis, false);
var result1 = Solid.Difference(s1.Solid, new Transform(new Vector3(0, 0, -1)), s2.Solid, new Transform(new Vector3(0, 0, -3)));
var s3 = new Extrude(Polygon.Rectangle(4, 0.5), 3, Vector3.ZAxis, false);
result1 = Solid.Difference(result1, null, s3.Solid, new Transform(new Vector3(0, 0, -3.25)));
var rep = new Representation(new List <SolidOperation>()
{
new ConstructedSolid(result1)
});
var solidElement = new GeometricElement(representation: rep);
this.Model.AddElement(solidElement);
this.Model.AddElements(DrawEdges(result1, null));
Assert.Equal(20, result1.Faces.Count);
Assert.Equal(32, result1.Vertices.Count);
Assert.Equal(48, result1.Edges.Count);
}
/// <summary>
/// Construct a new position placement rule from scratch.
/// </summary>
/// <param name="name">The name of the rule.</param>
/// <param name="anchorIndex">The index of the anchor this element moves with.</param>
/// <param name="definition">The element that this rule places.</param>
/// <param name="anchorOffset">An optional transform for this element relative to its anchor.</param>
public PositionPlacementRule(string name, int anchorIndex, GeometricElement definition, Transform anchorOffset = null)
{
Name = name;
AnchorIndex = anchorIndex;
AnchorTransform = anchorOffset ?? new Transform();
Definition = definition;
}
public void SolidPlaneIntersectionTests(string name, string path)
{
this.Name = name;
var r = new Random();
var di = JsonConvert.DeserializeObject <DebugInfo>(File.ReadAllText(path), new[] { new SolidConverter() });
foreach (var solid in di.Solid)
{
Assert.True(di.Plane.Normal.IsUnitized());
Assert.True(solid.Intersects(di.Plane, out var results));
foreach (var p in results)
{
this.Model.AddElement(new Panel(p, r.NextMaterial()));
}
var rep = new Representation(new List <SolidOperation>()
{
new ConstructedSolid(solid, false)
});
var solidElement = new GeometricElement(representation: rep, material: BuiltInMaterials.Mass);
this.Model.AddElement(solidElement);
}
}
/// <summary>
/// Does this ray intersect with the provided GeometricElement? Only GeometricElements with Solid Representations are currently supported, and voids will be ignored.
/// </summary>
/// <param name="element">The element to intersect with.</param>
/// <param name="result">The list of intersection results.</param>
/// <returns></returns>
public bool Intersects(GeometricElement element, out List <Vector3> result)
{
List <Vector3> resultsOut = new List <Vector3>();
var transformFromElement = new Transform(element.Transform);
transformFromElement.Invert();
var transformToElement = new Transform(element.Transform);
var transformMinusTranslation = new Transform(transformFromElement);
// This transform ignores position so it can be used to transform the ray direction vector
transformMinusTranslation.Move(transformMinusTranslation.Origin.Negate());
var transformedRay = new Ray(transformFromElement.OfPoint(Origin), transformMinusTranslation.OfVector(Direction));
//TODO: extend to handle voids when void solids in Representations are supported generally
var intersects = false;
foreach (var solidOp in element.Representation.SolidOperations.Where(e => !e.IsVoid))
{
if (transformedRay.Intersects(solidOp, out List <Vector3> tempResults))
{
intersects = true;
resultsOut.AddRange(tempResults.Select(t => transformToElement.OfPoint(t)));
}
;
}
result = resultsOut;
return(intersects);
}
public void SolidIntersectsPlaneAtFaceReturningFaceLoop()
{
this.Name = nameof(SolidIntersectsPlaneAtFaceReturningFaceLoop);
var r = new Random();
var profile = Polygon.Rectangle(5, 5);
var extrude = new Extrude(profile, 5, Vector3.ZAxis, false);
var plane = new Plane(new Vector3(0, -2.5, 2.5), Vector3.YAxis.Negate());
Assert.True(extrude.Solid.Intersects(plane, out List <Polygon> result));
Assert.Single(result);
var p = result[0];
Assert.Equal(4, p.Vertices.Count);
this.Model.AddElement(new Panel(p, r.NextMaterial()));
var rep = new Representation(new List <SolidOperation>()
{
extrude
});
var solidElement = new GeometricElement(representation: rep, material: BuiltInMaterials.Mass);
this.Model.AddElement(solidElement);
}
public void SolidIntersectPlaneTwice()
{
this.Name = nameof(SolidIntersectPlaneTwice);
var r = new Random();
var l = Polygon.L(5, 5, 1);
var profile = new Profile(l, l.Offset(-0.1).Reversed());
var arc = new Arc(Vector3.Origin, 5, 0, 180);
var sweep = new Sweep(profile, arc, 0, 0, 0, false);
var plane = new Plane(Vector3.Origin, Vector3.YAxis.Negate());
Assert.True(sweep.Solid.Intersects(plane, out List <Polygon> result));
Assert.Equal(4, result.Count);
foreach (var p in result)
{
Assert.Equal(6, p.Vertices.Count);
this.Model.AddElement(new Panel(p, r.NextMaterial()));
}
var rep = new Representation(new List <SolidOperation>()
{
sweep
});
var solidElement = new GeometricElement(representation: rep, material: BuiltInMaterials.Mass);
this.Model.AddElement(solidElement);
}
public void TessellatorProducesCorrectVertexNormals()
{
Name = nameof(TessellatorProducesCorrectVertexNormals);
var shape = new Polygon((4.96243, 50.58403), (5.78472, 50.58403), (5.78472, 65.83403), (-7.05727, 65.83403), (-7.05727, 50.57403), (4.96243, 50.57403));
var geoElem = new GeometricElement(representation: new Extrude(shape, 1, Vector3.ZAxis, false));
Model.AddElement(geoElem);
var solid = geoElem.GetFinalCsgFromSolids();
var mgb = new MockGraphicsBuffer();
var arrows = new ModelArrows();
Tessellation.Tessellate(new Csg.Solid[] { solid }.Select(s => new CsgTessellationTargetProvider(solid)), mgb);
for (int i = 0; i < mgb.Indices.Count; i += 3)
{
var a = mgb.Indices[i];
var b = mgb.Indices[i + 1];
var c = mgb.Indices[i + 2];
var verts = new[] { mgb.Vertices[a], mgb.Vertices[b], mgb.Vertices[c] };
verts.ToList().ForEach((v) =>
{
arrows.Vectors.Add((v.position, v.normal, 0.2, Colors.Blue));
});
var triangle = new Polygon(verts.Select(v => v.position).ToList());
var normal = verts[0].normal;
Assert.True(triangle.Normal().Dot(normal.Unitized()) > 0, "The vertex normals are pointing in the opposite direction as their triangles' winding should suggest");
Model.AddElement(triangle.TransformedPolygon(new Transform(normal * 0.2)));
}
Model.AddElement(arrows);
}
public void AllBooleans()
{
this.Name = nameof(AllBooleans);
CreateTestSolids(out GeometricElement a, out GeometricElement b);
var t1 = new Transform(new Vector3(10, 0));
var t2 = new Transform(new Vector3(15, 0));
var s1 = Solid.Union(a.Representation.SolidOperations[0], b.Representation.SolidOperations[0]);
var s2 = Solid.Difference(a.Representation.SolidOperations[0], b.Representation.SolidOperations[0]);
var s3 = Solid.Intersection(a.Representation.SolidOperations[0], b.Representation.SolidOperations[0]);
var i1 = new GeometricElement(null, BuiltInMaterials.Steel, new Representation(new List <SolidOperation> {
new ConstructedSolid(s1)
}));
var i2 = new GeometricElement(t1, BuiltInMaterials.Steel, new Representation(new List <SolidOperation> {
new ConstructedSolid(s2)
}));
var i3 = new GeometricElement(t2, BuiltInMaterials.Steel, new Representation(new List <SolidOperation> {
new ConstructedSolid(s3)
}));
this.Model.AddElements(DrawEdges(s1, null));
this.Model.AddElements(DrawEdges(s2, t1));
this.Model.AddElements(DrawEdges(s3, t2));
this.Model.AddElements(i1, i2, i3);
}
public void ConstructedSolid()
{
Name = nameof(ConstructedSolid);
var solid = new Solid();
var A = new Vector3(0, 0, 0);
var B = new Vector3(1, 0, 0);
var C = new Vector3(1, 1, 0);
var D = new Vector3(0, 1, 0);
var E = new Vector3(0, 0, 1);
var F = new Vector3(1, 0, 1);
var G = new Vector3(1, 1, 1);
var H = new Vector3(0, 1, 1);
solid.AddFace(new Polygon(new[] { A, B, C, D }));
solid.AddFace(new Polygon(new[] { E, F, G, H }));
solid.AddFace(new Polygon(new[] { A, B, F, E }));
solid.AddFace(new Polygon(new[] { B, C, G, F }));
solid.AddFace(new Polygon(new[] { C, D, H, G }));
solid.AddFace(new Polygon(new[] { D, A, E, H }));
var emptySolid = new ConstructedSolid(new Solid(), false);
var import = new ConstructedSolid(solid, false);
var representation = new Representation(new[] { import });
var emptyRep = new Representation(new[] { emptySolid });
var userElement = new GeometricElement(new Transform(), BuiltInMaterials.Default, representation, false, Guid.NewGuid(), "Import");
var userElementWithEmptySolid = new GeometricElement(new Transform(), BuiltInMaterials.Default, emptyRep, false, Guid.NewGuid(), "Import");
Model.AddElement(userElement);
Model.AddElement(userElementWithEmptySolid);
}
/// <summary>
/// Does this ray intersect with the provided GeometricElement? Only GeometricElements with Solid Representations are currently supported, and voids will be ignored.
/// </summary>
/// <param name="element">The element to intersect with.</param>
/// <param name="result">The list of intersection results.</param>
/// <returns></returns>
public bool Intersects(GeometricElement element, out List <Vector3> result)
{
if (element.Representation == null || element.Representation.SolidOperations == null || element.Representation.SolidOperations.Count == 0)
{
element.UpdateRepresentations();
}
List <Vector3> resultsOut = new List <Vector3>();
var transformFromElement = new Transform(element.Transform);
transformFromElement.Invert();
var transformToElement = new Transform(element.Transform);
var transformedRay = new Ray(transformFromElement.OfPoint(Origin), transformFromElement.OfVector(Direction));
//TODO: extend to handle voids when void solids in Representations are supported generally
var intersects = false;
foreach (var solidOp in element.Representation.SolidOperations.Where(e => !e.IsVoid))
{
if (transformedRay.Intersects(solidOp, out List <Vector3> tempResults))
{
intersects = true;
resultsOut.AddRange(tempResults.Select(t => transformToElement.OfPoint(t)));
}
;
}
result = resultsOut;
return(intersects);
}
private static IfcProduct ConvertElementToIfcProduct(Guid id, GeometricElement element, IfcLocalPlacement localPlacement, IfcProductDefinitionShape shape)
{
try
{
IfcProduct e = null;
if (element is Beam)
{
e = ((Beam)element).ToIfc(id, localPlacement, shape);
}
if (element is Brace)
{
e = ((Brace)element).ToIfc(id, localPlacement, shape);
}
else if (element is Column)
{
e = ((Column)element).ToIfc(id, localPlacement, shape);
}
else if (element is StandardWall)
{
e = ((StandardWall)element).ToIfc(id, localPlacement, shape);
}
else if (element is Wall)
{
e = ((Wall)element).ToIfc(id, localPlacement, shape);
}
else if (element is Floor)
{
e = ((Floor)element).ToIfc(id, localPlacement, shape);
}
else if (element is Space)
{
e = ((Space)element).ToIfc(id, localPlacement, shape);
}
else if (element is Panel)
{
e = ((Panel)element).ToIfc(id, localPlacement, shape);
}
else if (element is Mass)
{
e = ((Mass)element).ToIfc(id, localPlacement, shape);
}
else if (element is Opening)
{
e = ((Opening)element).ToIfc(id, localPlacement, shape);
}
else
{
e = element.ToIfc(id, localPlacement, shape);
}
return(e);
}
catch (Exception ex)
{
Console.WriteLine(ex.Message);
Console.WriteLine($"{element.GetType()} cannot be serialized to IFC.");
}
return(null);
}
/// <summary>
/// Construct a new array placement rule from scratch.
/// </summary>
/// <param name="definition">The element to array.</param>
/// <param name="arrayPath">The path along which to array.</param>
/// <param name="spacingRule">The configuration for the spacing.</param>
/// <param name="anchorIndices">For each vertex, the index of the corresponding anchor.</param>
/// <param name="anchorDisplacements">For each vertex, the displacement from its anchor.</param>
/// <param name="name">The name.</param>
public ArrayPlacementRule(GeometricElement definition, Polyline arrayPath, SpacingConfiguration spacingRule, IList <int> anchorIndices, IList <Vector3> anchorDisplacements, string name)
{
Curve = arrayPath;
AnchorIndices = anchorIndices;
AnchorDisplacements = anchorDisplacements;
Name = name;
IsClosed = arrayPath is Polygon;
SpacingRule = spacingRule;
ElementDefinition = definition;
}
/// <summary>
/// Get DXF entities from the Representation of a GeometricElement.
/// </summary>
/// <param name="element"></param>
/// <returns></returns>
public static List <DxfEntity> GetEntitiesFromRepresentation(this GeometricElement element)
{
var list = new List <DxfEntity>();
foreach (var solidOp in element.Representation.SolidOperations)
{
list.AddRange(solidOp.ToDxfEntities(element.Transform));
}
return(list);
}
public void ThrowsExceptionWhenCreatingMeshFromElementWithNoRepresentation()
{
var empty = new GeometricElement(new Transform(),
BuiltInMaterials.Default,
null,
false,
System.Guid.NewGuid(),
"");
Assert.Throws <ArgumentNullException>(() => empty.ToMesh());
}
public bool BakeElement
(
IDictionary <DB.ElementId, Guid> idMap,
bool overwrite,
RhinoDoc doc,
ObjectAttributes att,
out Guid guid
)
{
// 1. Check if is already cloned
if (idMap.TryGetValue(Id, out guid))
{
return(true);
}
// 3. Update if necessary
if (Value is DB.FamilySymbol element)
{
using (var options = new DB.Options()
{
DetailLevel = DB.ViewDetailLevel.Fine
})
{
using (var context = GeometryDecoder.Context.Push())
{
context.Element = element;
context.GraphicsStyleId = element.Category?.GetGraphicsStyle(DB.GraphicsStyleType.Projection)?.Id ?? DB.ElementId.InvalidElementId;
context.MaterialId = element.Category?.Material?.Id ?? DB.ElementId.InvalidElementId;
using (var geometry = element.GetGeometry(options))
{
if (geometry is DB.GeometryElement geometryElement)
{
if (GeometricElement.BakeGeometryElement(idMap, overwrite, doc, att, Transform.Identity, element, geometry, out var idefIndex))
{
guid = doc.InstanceDefinitions[idefIndex].Id;
}
}
if (guid != Guid.Empty)
{
idMap.Add(Id, guid);
return(true);
}
}
}
}
}
return(false);
}
private static IfcBuildingElementProxy ToIfc(this GeometricElement element, Guid id, IfcLocalPlacement localPlacement, IfcProductDefinitionShape shape)
{
var proxy = new IfcBuildingElementProxy(IfcGuid.ToIfcGuid(id),
null,
null,
null,
null,
localPlacement,
shape,
null,
IfcBuildingElementProxyTypeEnum.ELEMENT);
return(proxy);
}
private static IfcBuildingElementProxy ToIfc(this GeometricElement element, Guid id, IfcLocalPlacement localPlacement, IfcProductDefinitionShape shape)
{
var proxy = new IfcBuildingElementProxy(IfcGuid.ToIfcGuid(id),
null,
element.Name,
$"A {element.GetType().Name} created in Hypar.",
$"{element.GetType().FullName}",
localPlacement,
shape,
null,
IfcBuildingElementProxyTypeEnum.ELEMENT);
return(proxy);
}
public void CreateLaminaWithHoles()
{
Name = nameof(CreateLaminaWithHoles);
var profile = new Profile(Polygon.Rectangle(15, 15), Polygon.Star(7, 4, 5));
var geoElem = new GeometricElement(
new Transform(),
BuiltInMaterials.XAxis,
new Representation(new[] {
new Lamina(profile)
}),
false, Guid.NewGuid(), "Planar Shape Test");
Model.AddElement(geoElem);
}
/// <summary>
/// Construct an ArrayPlacementRule from closest points using a set of reference anchors. Each polyline vertex will be associated with its closest anchor.
/// </summary>
/// <param name="element">The element to array.</param>
/// <param name="polyline">The array path.</param>
/// <param name="spacingRule">The spacing configuration.</param>
/// <param name="Anchors">The reference anchors from which to calculate the associations.</param>
/// <param name="name">The rule name.</param>
public static ArrayPlacementRule FromClosestPoints(GeometricElement element, Polyline polyline, SpacingConfiguration spacingRule, IList <Vector3> Anchors, string name)
{
var anchorIndices = new List <int>();
var anchorDisplacements = new List <Vector3>();
foreach (var v in polyline.Vertices)
{
var closestAnchorIndex = Enumerable.Range(0, Anchors.Count).OrderBy(a => Anchors[a].DistanceTo(v)).First();
anchorIndices.Add(closestAnchorIndex);
var closestAnchor = Anchors[closestAnchorIndex];
anchorDisplacements.Add(v - closestAnchor);
}
return(new ArrayPlacementRule(element, polyline, spacingRule, anchorIndices, anchorDisplacements, name));
}
public void Difference()
{
this.Name = nameof(Difference);
CreateTestSolids(out GeometricElement a, out GeometricElement b);
var s = Solid.Difference(a.Representation.SolidOperations[0], b.Representation.SolidOperations[0]);
Assert.Equal(15, s.Faces.Count);
var i = new GeometricElement(null, BuiltInMaterials.Steel, new Representation(new List <SolidOperation> {
new ConstructedSolid(s)
}));
this.Model.AddElement(i);
}
private static void CreateTestSolids(out GeometricElement a, out GeometricElement b)
{
var r = new Transform();
r.Move(2.5, 2.5, 2.5);
a = new Mass(Polygon.Rectangle(5, 5), 5);
b = new Mass(new Circle(2.5).ToPolygon(19).TransformedPolygon(r), 5);
a.UpdateRepresentations();
b.UpdateRepresentations();
var rotate = new Transform();
rotate.Rotate(Vector3.XAxis, 15);
b.Representation.SolidOperations[0].LocalTransform = rotate;
}
public void SolidIntersectsWithPlane()
{
this.Name = nameof(SolidIntersectsWithPlane);
var n = 4;
var outer = Polygon.Ngon(n, 2);
var inner = Polygon.Ngon(n, 1.75).Reversed();
var profile = new Profile(outer, new[] { inner });
var sweep = new Extrude(profile, 5, Vector3.ZAxis, false);
var plane1 = new Plane(new Vector3(0, 0, 1), new Vector3(0.5, 0.5, 0.5));
var plane2 = new Plane(new Vector3(0, 0, 2), new Vector3(0.1, 0, 1));
var plane3 = new Plane(new Vector3(0, 0, 5), Vector3.ZAxis);
Plane[] planes = new Plane[] { plane1, plane2, plane3 };
var r = new Random();
foreach (var plane in planes)
{
if (sweep.Solid.Intersects(plane, out List <Polygon> result))
{
if (result.Count > 1)
{
Assert.Equal(2, result.Count);
var cutProfile = new Profile(result[0], result.Skip(1).ToArray());
var lam = new Lamina(cutProfile, false);
var cutRep = new Representation(new List <SolidOperation>()
{
lam
});
this.Model.AddElement(new GeometricElement(representation: cutRep, material: r.NextMaterial()));
}
else
{
Assert.Single(result);
this.Model.AddElement(new Panel(result[0], r.NextMaterial()));
}
}
}
var rep = new Representation(new List <SolidOperation>()
{
sweep
});
var solidElement = new GeometricElement(representation: rep, material: BuiltInMaterials.Mass);
this.Model.AddElement(solidElement);
}
public void CoplanarSolidFacesUnionCorrectly()
{
this.Name = nameof(CoplanarSolidFacesUnionCorrectly);
var s1 = new Extrude(Polygon.Rectangle(2, 2), 2, Vector3.ZAxis, false);
var s2 = new Extrude(Polygon.Rectangle(2, 2).TransformedPolygon(new Transform(new Vector3(1, 1))), 2, Vector3.ZAxis, false);
var result = Solid.Union(s1._solid, null, s2._solid, null);
var rep = new Representation(new List <SolidOperation>()
{
new ConstructedSolid(result)
});
var solidElement = new GeometricElement(representation: rep);
this.Model.AddElement(solidElement);
this.Model.AddElements(DrawEdges(result, null));
Assert.Equal(10, result.Faces.Count);
var t = new Transform(new Vector3(5, 0));
var result1 = Solid.Difference(s1._solid, t, s2._solid, t);
var rep1 = new Representation(new List <SolidOperation>()
{
new ConstructedSolid(result1)
});
var solidElement1 = new GeometricElement(representation: rep1);
this.Model.AddElement(solidElement1);
this.Model.AddElements(DrawEdges(result1, null));
Assert.Equal(8, result1.Faces.Count);
var t1 = new Transform(new Vector3(10, 0));
var result2 = Solid.Intersection(s1._solid, t1, s2._solid, t1);
var rep2 = new Representation(new List <SolidOperation>()
{
new ConstructedSolid(result2)
});
var solidElement2 = new GeometricElement(representation: rep2);
this.Model.AddElement(solidElement2);
this.Model.AddElements(DrawEdges(result2, null));
Assert.Equal(6, result2.Faces.Count);
}
public void CreateProfilesFromPolygons()
{
Name = nameof(CreateProfilesFromPolygons);
var polygons = new List <Polygon> {
Polygon.Rectangle(10, 10),
Polygon.Star(4, 2, 5),
Polygon.Ngon(3, 1),
Polygon.Rectangle(new Vector3(6, -5), new Vector3(11, 0))
};
var profiles = Elements.Geometry.Profile.CreateFromPolygons(polygons);
Assert.True(profiles.Count == 3, $"There were {profiles.Count} profiles, 3 expected.");
var extrudes = profiles.Select(p => new Geometry.Solids.Extrude(p, 1, Vector3.ZAxis, false));
var rep = new Representation(new List <Geometry.Solids.SolidOperation>(extrudes));
var geoElem = new GeometricElement(new Transform(), BuiltInMaterials.Mass, rep, false, Guid.NewGuid(), null);
Model.AddElement(geoElem);
}
public void ImplicitRepresentationOperator()
{
Name = nameof(ImplicitRepresentationOperator);
// implicitly convert single solid operation to a representation
var element = new GeometricElement(new Transform(), BuiltInMaterials.ZAxis, new Extrude(Polygon.Rectangle(5, 5), 1, Vector3.ZAxis, false), false, Guid.NewGuid(), null);
// params constructor for Representation
var element2 = new GeometricElement(
new Transform(),
BuiltInMaterials.XAxis,
new Representation(
new Extrude(Polygon.Rectangle(7, 7), 1, Vector3.ZAxis, false),
new Extrude(Polygon.Rectangle(6, 6), 2, Vector3.ZAxis, true)
),
false,
Guid.NewGuid(),
null);
Model.AddElements(element, element2);
}
public void Csg()
{
this.Name = "Elements_Geometry_Csg";
var s1 = new Extrude(Polygon.Rectangle(Vector3.Origin, new Vector3(30, 30)), 50, Vector3.ZAxis, false);
var s2 = new Extrude(Polygon.Rectangle(30, 30), 30, Vector3.ZAxis, true);
var s3 = new Sweep(Polygon.Rectangle(Vector3.Origin, new Vector3(5, 5)), new Line(new Vector3(0, 0, 45), new Vector3(30, 0, 45)), 0, 0, 0, false);
var poly = new Polygon(new List <Vector3>()
{
new Vector3(0, 0, 0), new Vector3(20, 50, 0), new Vector3(0, 50, 0)
});
var s4 = new Sweep(poly, new Line(new Vector3(0, 30, 0), new Vector3(30, 30, 0)), 0, 0, 0, true);
var geom = new GeometricElement(new Transform(), new Material("Mod", Colors.White, 0.0, 0.0, "./Textures/UV.jpg"), new Representation(new List <SolidOperation>()
{
s1, s2, s3, s4
}), false, Guid.NewGuid(), null);
this.Model.AddElement(geom);
}
public void ConstructedSolid()
{
GenerateIfc = false;
Name = nameof(ConstructedSolid);
var solid = new Solid();
var A = new Vector3(0, 0, 0);
var B = new Vector3(1, 0, 0);
var C = new Vector3(1, 1, 0);
var D = new Vector3(0, 1, 0);
var E = new Vector3(0, 0, 1);
var F = new Vector3(1, 0, 1);
var G = new Vector3(1, 1, 1);
var H = new Vector3(0, 1, 1);
solid.AddFace(new Polygon(new[] { A, B, C, D }), mergeVerticesAndEdges: true);
solid.AddFace(new Polygon(new[] { E, F, G, H }), mergeVerticesAndEdges: true);
solid.AddFace(new Polygon(new[] { A, B, F, E }), mergeVerticesAndEdges: true);
solid.AddFace(new Polygon(new[] { B, C, G, F }), mergeVerticesAndEdges: true);
solid.AddFace(new Polygon(new[] { C, D, H, G }), mergeVerticesAndEdges: true);
solid.AddFace(new Polygon(new[] { D, A, E, H }), mergeVerticesAndEdges: true);
var emptySolid = new ConstructedSolid(new Solid(), false);
var import = new ConstructedSolid(solid, false);
var representation = new Representation(new[] { import });
var emptyRep = new Representation(new[] { emptySolid });
var userElement = new GeometricElement(new Transform(), BuiltInMaterials.Default, representation, false, Guid.NewGuid(), "Import");
var userElementWithEmptySolid = new GeometricElement(new Transform(), BuiltInMaterials.Default, emptyRep, false, Guid.NewGuid(), "Import Empty");
Model.AddElement(userElement);
Model.AddElement(userElementWithEmptySolid);
// ensure serialized solid
var modelJson = Model.ToJson();
var deserializedModel = Model.FromJson(modelJson);
var userElemDeserialized = deserializedModel.GetElementByName <GeometricElement>("Import");
var opDeserialized = userElemDeserialized.Representation.SolidOperations.First();
var solidDeserialized = opDeserialized?.Solid;
Assert.NotNull(solidDeserialized);
}
public void TwoHoles()
{
this.Name = nameof(TwoHoles);
var s1 = new Extrude(Polygon.Rectangle(2, 2), 2, Vector3.ZAxis, false);
var s2 = new Extrude(Polygon.Rectangle(0.25, 0.25).TransformedPolygon(new Transform(new Vector3(0, 0.5))), 2.5, Vector3.ZAxis, false);
var s3 = new Extrude(Polygon.Rectangle(0.25, 0.25).TransformedPolygon(new Transform(new Vector3(0, -0.5))), 2.5, Vector3.ZAxis, false);
var result = Solid.Union(s2.Solid, null, s3.Solid, null);
result = Solid.Difference(s1.Solid, null, result, null);
var rep = new Representation(new List <SolidOperation>()
{
new ConstructedSolid(result)
});
var solidElement = new GeometricElement(representation: rep);
this.Model.AddElement(solidElement);
this.Model.AddElements(DrawEdges(result, null));
Assert.Equal(14, result.Faces.Count);
}
public void ConstructedSolidProducesValidGlb()
{
Name = nameof(ConstructedSolidProducesValidGlb);
var allPolygons = JsonConvert.DeserializeObject <List <(Polygon outerLoop, List <Polygon> innerLoops)> >(File.ReadAllText("../../../models/Geometry/ExampleConstructedSolidPolygons.json"));
var solid = new Solid();
foreach (var face in allPolygons)
{
solid.AddFace(face.outerLoop, face.innerLoops, true);
}
var solidOp = new Elements.Geometry.Solids.ConstructedSolid(solid, false);
solidOp.LocalTransform = new Transform();
var geoElem = new GeometricElement(new Transform(), BuiltInMaterials.Concrete, new Representation(new[] { solidOp }), false, Guid.NewGuid(), null);
var model = new Model();
model.AddElement(geoElem);
var bytes = model.ToGlTF();
Assert.True(bytes != null && bytes.Length > 3000);
Model.AddElement(geoElem);
}
public void PassingHoleWithEqualFaces()
{
// The bottom face of a blind hole is inside the main solid,
// but does not intersect with any of the faces of the main solid.
// Ensure that the bottom face is not excluded.
this.Name = nameof(PassingHoleWithEqualFaces);
var s1 = new Extrude(Polygon.Rectangle(2, 2), 2, Vector3.ZAxis, false);
var s2 = new Extrude(Polygon.Rectangle(0.5, 0.5).TransformedPolygon(new Transform(new Vector3(0, 0.8))), 2, Vector3.ZAxis, false);
var result = Solid.Difference(s1.Solid, null, s2.Solid, null);
var rep = new Representation(new List <SolidOperation>()
{
new ConstructedSolid(result)
});
var solidElement = new GeometricElement(representation: rep);
this.Model.AddElement(solidElement);
this.Model.AddElements(DrawEdges(result, null));
Assert.Equal(10, result.Faces.Count);
}
