public static List <MyVertex> extractVertecesFromSelectedFaces(SldWorks SwApplication, ModelDoc2 swModel)
{
// Create a file to write to.
StringBuilder sb = new StringBuilder();
List <MyVertex> listPointVertex = new List <MyVertex>();
var selectedEntities = BRepFunctions.GetSelectedFaces(SwApplication, swModel);
SwApplication.SendMsgToUser("Numero entità selezionate " + selectedEntities.Count.ToString());
foreach (Entity selection in selectedEntities)
{
var VertecesList = BRepFunctions.MyGetVertexFromFace(selection);
foreach (SolidWorks.Interop.sldworks.Vertex vertex in VertecesList)
{
var point = (Array)vertex.GetPoint();
var currentVertex = new ClassesOfObjects.MyVertex((double)point.GetValue(0), (double)point.GetValue(1), (double)point.GetValue(2));
listPointVertex.Add(currentVertex);
}
}
return(listPointVertex);
}
public static MyRepeatedEntity KLBuildRepeatedEntity(List <Entity> entityList, int idNewRepeatedEntity, double[,] compositionMatrixOfComponentPart, SldWorks swapp)
{
List <Face2> listOfFacesForRepeatedEntity = new List <Face2>();
List <MyVertex> listOfMyVertexForRepeatedEntity = new List <MyVertex>();
List <MyVertex> listOfMyVertexAddedForRepeatedEntity = new List <MyVertex>();
List <MyVertex> listOfMyVertexOfCurrentFace = new List <MyVertex>();
List <MyVertex> listOfAddedMyVertexOfCurrentFace = new List <MyVertex>();
var listOfMyPlane = new List <MyPlane>();
var listOfMySphere = new List <MySphere>();
var listOfMyCone = new List <MyCone>();
var listOfMyCylinder = new List <MyCylinder>();
var listOfMyTorus = new List <MyTorus>();
//const string fileNameBuildRepeatedEntity = "buildRepeatedEntity.txt";
//string whatToWrite = "";
//whatToWrite = string.Format("Numero di facce : {0}", entityList.Count);
// KLdebug.Print(whatToWrite, fileNameBuildRepeatedEntity);
foreach (Entity entity in entityList)
{
// face storing and classification:
var face = (Face2)entity;
if (((((Surface)face.GetSurface()).Identity() == (int)swSurfaceTypes_e.PLANE_TYPE)) ||
((((Surface)face.GetSurface()).Identity() == (int)swSurfaceTypes_e.CYLINDER_TYPE)) ||
((((Surface)face.GetSurface()).Identity() == (int)swSurfaceTypes_e.SPHERE_TYPE)))
{
listOfFacesForRepeatedEntity.Add(face);
KLClassifyFace(entity, ref listOfMyPlane, ref listOfMySphere,
ref listOfMyCone, ref listOfMyCylinder, ref listOfMyTorus, compositionMatrixOfComponentPart);
// vertex storing and classification (from a current face):
listOfMyVertexOfCurrentFace.Clear();
listOfAddedMyVertexOfCurrentFace.Clear();
BRepFunctions.MyGetPointFromFaceEntity(entity, ref listOfMyVertexOfCurrentFace,
ref listOfAddedMyVertexOfCurrentFace, swapp);
// If in the face itself there are two MyVertex repeated (in listOfMyVertexOfCurrentFace) with
// the following foreach instruction they are stored only once.
foreach (MyVertex myVert in listOfMyVertexOfCurrentFace)
{
double[] vertexAffine =
{
myVert.x, myVert.y, myVert.z, 1
};
var newVertex = Matrix.Multiply(compositionMatrixOfComponentPart, vertexAffine);
var vertexToAdd = new MyVertex(newVertex[0], newVertex[1], newVertex[2]);
if (!(listOfMyVertexForRepeatedEntity.Contains(vertexToAdd)))
{
listOfMyVertexForRepeatedEntity.Add(vertexToAdd);
//whatToWrite = string.Format("Aggiunto Vertice normale: ({0},{1},{2})", myVert.x, myVert.y,
// myVert.z);
//KLdebug.Print(whatToWrite, fileNameBuildRepeatedEntity);
}
}
// If in the face itself there are two MyVertex repeated (in listOfAddedMyVertexOfCurrentFace) with
//// the following foreach instruction they are stored only once.
foreach (MyVertex myVert in listOfAddedMyVertexOfCurrentFace)
{
double[] vertexAffine =
{
myVert.x, myVert.y, myVert.z, 1
};
var newVertex = Matrix.Multiply(compositionMatrixOfComponentPart, vertexAffine);
var vertexToAdd = new MyVertex(newVertex[0], newVertex[1], newVertex[2]);
if (!(listOfMyVertexAddedForRepeatedEntity.Contains(vertexToAdd)))
{
listOfMyVertexAddedForRepeatedEntity.Add(vertexToAdd);
//whatToWrite = string.Format("Aggiunto Vertice su edge curvo chiuso: ({0},{1},{2})", myVert.x,
// myVert.y, myVert.z);
//KLdebug.Print(whatToWrite, fileNameBuildRepeatedEntity);
}
}
}
}
// Centroid computation:
//KLdebug.Print(" ", fileNameBuildRepeatedEntity);
var listOfAllVertices = new List <MyVertex>();
listOfAllVertices.AddRange(listOfMyVertexForRepeatedEntity);
listOfAllVertices.AddRange(listOfMyVertexAddedForRepeatedEntity);
MyVertex outputCentroid = computeCentroidsOfVertices(listOfAllVertices); // centroid of the vertices
//whatToWrite = string.Format("Baricentro ({0},{1},{2})", outputCentroid.x, outputCentroid.y, outputCentroid.z);
//KLdebug.Print(whatToWrite, fileNameBuildRepeatedEntity);
// Creation of new MyRepeatedEntity:
MyRepeatedEntity outputRepeatedEntity = new MyRepeatedEntity(idNewRepeatedEntity, listOfFacesForRepeatedEntity, outputCentroid,
listOfMyVertexForRepeatedEntity, listOfMyVertexAddedForRepeatedEntity, listOfMyPlane, listOfMySphere, listOfMyCone,
listOfMyCylinder, listOfMyTorus, compositionMatrixOfComponentPart);
return(outputRepeatedEntity);
}
// The function takes as input - a Face2
//. - a list of Face2 to remove from the the adjacent ones
//It returns the list of the surfaces corresponding to the faces adjacent to the input face but not in the
//list of faces to remove.
// (this list of faces to remove is provided in preparation for the next function, as for every
// face of a RE we want to consider the surfaces corresponding only to faces of the BRep different
// from the faces of the RE itself).
public static List <Surface> GetSurfacesOfFacesAdjacentToFace(Face2 inputFace, List <Face2> listOfFacesToRemoveFromTheAdjacents, SldWorks swApplWorks)
{
List <Surface> outputListOfSurfaces = new List <Surface>();
List <Face2> listOfAdjacentFaces = new List <Face2>();
listOfAdjacentFaces = BRepFunctions.MyAdjacenceFace(inputFace, swApplWorks);
if (listOfAdjacentFaces == null)
{
return(outputListOfSurfaces);
}
listOfAdjacentFaces.RemoveAll(face => listOfFacesToRemoveFromTheAdjacents.FindIndex(facebis => face.GetFaceId() == facebis.GetFaceId()) != -1);
#region stampa dati della superficie esaminata
//var thisSurface = (Surface)inputFace.GetSurface();
//var firstPlaneParameters1 = thisSurface.PlaneParams;
//double[] firstPlaneNormalUnchecked1 = { firstPlaneParameters1[0], firstPlaneParameters1[1], firstPlaneParameters1[2] };
//double[] firstPlanePoint1 = { firstPlaneParameters1[3], firstPlaneParameters1[4], firstPlaneParameters1[5] };
//double[] firstPlaneNormal1 = GeometryFunctions.MyGetNormalForPlaneFace(inputFace, out firstPlaneNormalUnchecked1);
//MyPlane firstPlane1 = new MyPlane(firstPlaneNormal1, firstPlanePoint1);
//KLdebug.Print("Superficie della faccia in esame:", fileNameBuildRepeatedEntity);
//string whatToWrite1 = string.Format("a {0}, b {1}, c {2}, d {3}", firstPlane1.a, firstPlane1.b, firstPlane1.c, firstPlane1.d);
//KLdebug.Print(whatToWrite1, fileNameBuildRepeatedEntity);
//KLdebug.Print(" ", "buildRepeatedEntity.txt");
#endregion
int index = 0;
foreach (Face2 face in listOfAdjacentFaces)
{
var newSurface = (Surface)face.GetSurface();
#region stampa dati della superficie trovata adiacente a quella esaminata
//var firstPlaneParameters = newSurface.PlaneParams;
//double[] firstPlaneNormalUnchecked = { firstPlaneParameters[0], firstPlaneParameters[1], firstPlaneParameters[2] };
//double[] firstPlanePoint = { firstPlaneParameters[3], firstPlaneParameters[4], firstPlaneParameters[5] };
//double[] firstPlaneNormal = GeometryFunctions.MyGetNormalForPlaneFace(face, out firstPlaneNormalUnchecked);
//MyPlane firstPlane = new MyPlane(firstPlaneNormal, firstPlanePoint);
////string whatToWriteBis = string.Format("Primo normale: a {0}, b {1}, c {2}", firstPlaneNormal.GetValue(0), firstPlaneNormal.GetValue(1), firstPlaneNormal.GetValue(2));
//string whatToWrite = string.Format("a {0}, b {1}, c {2}, d {3}", firstPlane.a, firstPlane.b, firstPlane.c, firstPlane.d);
////KLdebug.Print(whatToWriteBis, fileNameBuildRepeatedEntity);
//KLdebug.Print(whatToWrite, fileNameBuildRepeatedEntity);
#endregion
string whatToWrite1 = "";
if (outputListOfSurfaces.FindIndex(surface => MyEqualsSurface(surface, newSurface, swApplWorks)) == -1)
{
outputListOfSurfaces.Add(newSurface);
index++;
}
else
{
//var indexOfExistingSurface = outputListOfSurfaces.FindIndex(surface => myEqualsSurface(surface, newSurface));
}
}
return(outputListOfSurfaces);
}
