-# Copyright (C) 2007-2014 CEA/DEN, EDF R&D, OPEN CASCADE
-
-# Copyright (C) 2003-2007 OPEN CASCADE, EADS/CCR, LIP6, CEA/DEN,
-# CEDRAT, EDF R&D, LEG, PRINCIPIA R&D, BUREAU VERITAS
-
+# Copyright (C) 2014-2016 EDF R&D
+#
# This library is free software; you can redistribute it and/or
# modify it under the terms of the GNU Lesser General Public
# License as published by the Free Software Foundation; either
# version 2.1 of the License, or (at your option) any later version.
-
+#
# This library is distributed in the hope that it will be useful,
# but WITHOUT ANY WARRANTY; without even the implied warranty of
# MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
# Lesser General Public License for more details.
-
+#
# You should have received a copy of the GNU Lesser General Public
# License along with this library; if not, write to the Free Software
# Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
-
+#
# See http://www.salome-platform.org/ or email : webmaster.salome@opencascade.com
+#
class MacObject:
- """
- This represents a python class definition which contains
- all necessary information about the macro object being created
- in Salome
- """
+ """
+ This represents a python class definition which contains
+ all necessary information about the macro object being created
+ in Salome
+ """
+
+ def __init__( self, ObjectType, GeoParameters, MeshParameters, **args ):
+ """
+ Initializes the macro object to be created, saves parameters inside of it, checks for neighboring objects,
+ determines meshing parameters if necessary and finally launches the generation process.
+ """
+ import Config,GenFunctions
+ if Config.debug : print("Initializing object No. " + str(len(Config.ListObj)+1))
+
+ if 'publish' in args :
+ if args['publish']==0 : Config.publish = 0
+ else : Config.publish = 1
+ else : Config.publish = 1
+
+ if 'groups' in args :
+ self.GroupNames = args['groups']
+ for group in args['groups'] :
+ if not(group in Config.Groups) and group : Config.Groups.append(group)
+ else : self.GroupNames = [None, None, None, None]
+
+ if ObjectType == 'NonOrtho':
+ if not(len(GeoParameters)==4): print("Error: trying to construct a non-ortho object but the 4 constitutive vertices are not given!")
+ else :
+ Xmin = min([GeoParameters[i][0] for i in range(4)])
+ Xmax = max([GeoParameters[i][0] for i in range(4)])
+ Ymin = min([GeoParameters[i][1] for i in range(4)])
+ Ymax = max([GeoParameters[i][1] for i in range(4)])
+ self.GeoPar = [(0.5*(Xmin+Xmax),0.5*(Ymin+Ymax)),(Xmax-Xmin,Ymax-Ymin)]
+ self.PtCoor = GenFunctions.SortPoints(GeoParameters)
+ else:
+ self.GeoPar = GeoParameters
+ [Xmin,Ymin,Xmax,Ymax] = [ self.GeoPar[0][0]-0.5*self.GeoPar[1][0], self.GeoPar[0][1]-0.5*self.GeoPar[1][1] ] + [ self.GeoPar[0][0]+0.5*self.GeoPar[1][0], self.GeoPar[0][1]+0.5*self.GeoPar[1][1] ]
+ self.PtCoor = [(Xmin,Ymin),(Xmax,Ymin),(Xmax,Ymax),(Xmin,Ymax)]
+
+ self.Type = ObjectType
+ self.LowBound = [ self.GeoPar[0][0]-0.5*self.GeoPar[1][0], self.GeoPar[0][1]-0.5*self.GeoPar[1][1] ]
+ self.UpperBound = [ self.GeoPar[0][0]+0.5*self.GeoPar[1][0], self.GeoPar[0][1]+0.5*self.GeoPar[1][1] ]
+ self.MeshPar = MeshParameters
+ self.GeoChildren = []
+ self.GeoChildrenNames = []
+ self.Mesh = []
+ self.MeshGroups = []
+ self.CheckInterfaces()
+ if 'auto' in MeshParameters : self.AutoParam()
+ if not(self.MeshPar[0]<0): self.Generate()
+ else :
+ Config.ListObj.append(self)
+ print("Aborting object creation\n ")
+
+ def Generate(self) :
+ """
+ This method generates the geometrical object with the corresponding mesh once all verifications (CheckInterfaces and AutoParam)
+ have been accomplished
+ """
+ import GenFunctions, Alarms, Config
+ self = {'Box11' : lambda : GenFunctions.Box11(self),
+ 'Box42' : lambda : GenFunctions.Box42(self),
+ 'BoxAng32' : lambda : GenFunctions.BoxAng32(self),
+ 'CompBox' : lambda : GenFunctions.CompBox(self),
+ 'CompBoxF' : lambda : GenFunctions.CompBoxF(self),
+ 'NonOrtho' : lambda : GenFunctions.NonOrtho(self),
+ 'QuartCyl' : lambda : GenFunctions.QuartCyl(self) }[self.Type]()
+
+ if Config.debug : Alarms.Message(self.status) # notification on the result of the generation algorithm
+
+
+ def CheckInterfaces(self):
+ """
+ This method searches for neighbours for the object being created and saves them inside the Config.Connections
+ array. This array contains 4 entries per object corresponding to West, East, South, and North neighbours.
+ Note that an object may have more than one neighbour for a given direction.
+ """
+ import Alarms, Config
+ from GenFunctions import AddIfDifferent
+ from CompositeBox import FindCommonSide
+
+ Config.Connections.append([(-1,),(-1,),(-1,),(-1,)])
+ itemID = len(Config.ListObj)
+ # In all cases except non ortho, PrincipleBoxes is unitary and contains the box in question
+ # In the non-ortho case it contains all possible combinations of boxes with 3 vertices
+ PrincipleBoxes = self.PrincipleBoxes()
+ for i, TestObj in enumerate(Config.ListObj):
+ SecondaryBoxes = TestObj.PrincipleBoxes()
+ ConnX = 0
+ ConnY = 0
+ for Box0 in PrincipleBoxes:
+ for Box1 in SecondaryBoxes:
+ # Along X
+ CenterDis = abs(Box1[0][0]-Box0[0][0])
+ Extension = 0.5*(Box1[1][0]+Box0[1][0])
+ if CenterDis - Extension < -1e-7 :
+ ConnX = -1
+ elif CenterDis - Extension < 1e-7 :
+ if not(FindCommonSide(self.DirBoundaries(2),TestObj.DirBoundaries(3))==[0,0]) and Box1[0][0] < Box0[0][0] : ConnX = 1
+ elif not(FindCommonSide(self.DirBoundaries(3),TestObj.DirBoundaries(2))==[0,0]) and Box1[0][0] >= Box0[0][0]: ConnX = 2
+ else : ConnX = 0
+
+ # Along Y
+ CenterDis = abs(Box1[0][1]-Box0[0][1])
+ Extension = 0.5*(Box1[1][1]+Box0[1][1])
+ if CenterDis - Extension < -1e-7 :
+ ConnY = -1
+ elif CenterDis - Extension < 1e-7 :
+ if not(FindCommonSide(self.DirBoundaries(0),TestObj.DirBoundaries(1))==[0,0]) and Box1[0][1] < Box0[0][1] : ConnY = 1
+ elif not(FindCommonSide(self.DirBoundaries(1),TestObj.DirBoundaries(0))==[0,0]) and Box1[0][1] >= Box0[0][1]: ConnY = 2
+ else : ConnY = 0
+
+ if not (ConnX*ConnY == 0) :
+ if max(ConnX,ConnY) == -1 and not('NonOrtho' in [self.Type,TestObj.Type]) : Alarms.Message(3)
+ else:
+ if ConnX == 1 and ConnY == -1:
+ if Config.Connections[i][1] == (-1,) : Config.Connections[i][1] = (itemID,)
+ else : Config.Connections[i][1] = AddIfDifferent(Config.Connections[i][1],itemID)
+ if Config.Connections[itemID][0] == (-1,) : Config.Connections[itemID][0] = (i,)
+ else : Config.Connections[itemID][0] = AddIfDifferent(Config.Connections[itemID][0],i)
+ elif ConnX == 2 and ConnY == -1:
+ if Config.Connections[i][0] == (-1,) : Config.Connections[i][0] = (itemID,)
+ else : Config.Connections[i][0] = AddIfDifferent(Config.Connections[i][0],itemID)
+ if Config.Connections[itemID][1] == (-1,) : Config.Connections[itemID][1] = (i,)
+ else : Config.Connections[itemID][1] = AddIfDifferent(Config.Connections[itemID][1],i)
+ elif ConnY == 1 and ConnX == -1:
+ if Config.Connections[i][3] == (-1,) : Config.Connections[i][3] = (itemID,)
+ else : Config.Connections[i][3] = AddIfDifferent(Config.Connections[i][3],itemID)
+ if Config.Connections[itemID][2] == (-1,) : Config.Connections[itemID][2] = (i,)
+ else : Config.Connections[itemID][2] = AddIfDifferent(Config.Connections[itemID][2],i)
+ elif ConnY ==2 and ConnX == -1:
+ if Config.Connections[i][2] == (-1,) : Config.Connections[i][2] = (itemID,)
+ else : Config.Connections[i][2] = AddIfDifferent(Config.Connections[i][2],itemID)
+ if Config.Connections[itemID][3] == (-1,) : Config.Connections[itemID][3] = (i,)
+ else : Config.Connections[itemID][3] = AddIfDifferent(Config.Connections[itemID][3],i)
+
+ def AutoParam (self):
+ """
+ This method is called only if the 'auto' keyword is used inside the meshing algorithm. It is based on the
+ connection results per object and tries to find the correct parameters for obtaining a final compatible mesh
+ between the objects already present and the one being created. If this is not possible, the method gives an error
+ message.
+ """
+ import Alarms, Config, GenFunctions, CompositeBox
+ MeshPar = [0,0,0,0] # initialize the mesh parameter value to be used to -1
+ [(X0,Y0),(DX,DY)] = self.GeoPar
+ ObjectsInvolved = []
+ for i, Conn in enumerate(Config.Connections[-1]):
+ if not ( Conn == (-1,) ): # Meaning that there is one or more neighbors on this direction
+ for ObjID in Conn :
+ ToLook0 = [2,3,0,1][i]
+ ToLook1 = [3,2,1,0][i]
+ CommonSide = CompositeBox.FindCommonSide(Config.ListObj[ObjID].DirBoundaries(ToLook1),self.DirBoundaries(ToLook0))
+ #print "Common Side is:", CommonSide
+ ToLook2 = [1,0,3,2][i]
+ #print "Full Side is:", CompositeBox.IntLen(Config.ListObj[ObjID].DirBoundaries(ToLook1))
+ #print "Full Segments on this direction are:", Config.ListObj[ObjID].DirectionalMeshParams[ToLook2]
+ RealSegments = round(Config.ListObj[ObjID].DirectionalMeshParams[ToLook2]*CompositeBox.IntLen(CommonSide)/CompositeBox.IntLen(Config.ListObj[ObjID].DirBoundaries(ToLook1)))
+ #print "RealSegments :", RealSegments
+
+ MeshPar[i] = MeshPar[i] + RealSegments
+ ObjectsInvolved.append(ObjID+1)
+ self.DirectionalMeshParams = MeshPar
+ self.MeshPar[0] = GenFunctions.CompatibilityTest(self)
+
+ if isinstance( self.MeshPar[0], list ):
+ return # workaround, as CompatibilityTest() can return a list
+ if self.MeshPar[0] < 0 :
+ Alarms.Message(4)
+ if self.MeshPar[0] == -1 : print(("Problem encountered with object(s) no. "+str(ObjectsInvolved)))
+ elif self.MeshPar[0] == -2 : print ("This object has no neighbours !!!")
+
+ def Boundaries (self):
+ """
+ This method returns the global boundaries of the MacObject. [Xmin,Xmax,Ymin,Ymax]
+ """
+ Xmin = min([self.DirBoundaries(i)[0] for i in [0,1]])
+ Xmax = max([self.DirBoundaries(i)[1] for i in [0,1]])
+ Ymin = min([self.DirBoundaries(i)[0] for i in [2,3]])
+ Ymax = max([self.DirBoundaries(i)[1] for i in [2,3]])
- def __init__( self, ObjectType, GeoParameters, MeshParameters, **args ):
- """
- Initializes the macro object to be created, saves parameters inside of it, checks for neighboring objects,
- determines meshing parameters if necessary and finally launches the generation process.
- """
- import Config,GenFunctions
- if Config.debug : print "Initializing object No. " + str(len(Config.ListObj)+1)
+ return [Xmin,Xmax,Ymin,Ymax]
- if 'publish' in args :
- if args['publish']==0 : Config.publish = 0
- else : Config.publish = 1
- else : Config.publish = 1
-
- if 'groups' in args :
- self.GroupNames = args['groups']
- for group in args['groups'] :
- if not(group in Config.Groups) and group : Config.Groups.append(group)
- else : self.GroupNames = [None, None, None, None]
-
- if ObjectType == 'NonOrtho':
- if not(len(GeoParameters)==4): print "Error: trying to construct a non-ortho object but the 4 constitutive vertices are not given!"
- else :
- Xmin = min([GeoParameters[i][0] for i in range(4)])
- Xmax = max([GeoParameters[i][0] for i in range(4)])
- Ymin = min([GeoParameters[i][1] for i in range(4)])
- Ymax = max([GeoParameters[i][1] for i in range(4)])
- self.GeoPar = [(0.5*(Xmin+Xmax),0.5*(Ymin+Ymax)),(Xmax-Xmin,Ymax-Ymin)]
- self.PtCoor = GenFunctions.SortPoints(GeoParameters)
- else:
- self.GeoPar = GeoParameters
- [Xmin,Ymin,Xmax,Ymax] = [ self.GeoPar[0][0]-0.5*self.GeoPar[1][0], self.GeoPar[0][1]-0.5*self.GeoPar[1][1] ] + [ self.GeoPar[0][0]+0.5*self.GeoPar[1][0], self.GeoPar[0][1]+0.5*self.GeoPar[1][1] ]
- self.PtCoor = [(Xmin,Ymin),(Xmax,Ymin),(Xmax,Ymax),(Xmin,Ymax)]
-
- self.Type = ObjectType
- self.LowBound = [ self.GeoPar[0][0]-0.5*self.GeoPar[1][0], self.GeoPar[0][1]-0.5*self.GeoPar[1][1] ]
- self.UpperBound = [ self.GeoPar[0][0]+0.5*self.GeoPar[1][0], self.GeoPar[0][1]+0.5*self.GeoPar[1][1] ]
- self.MeshPar = MeshParameters
- self.GeoChildren = []
- self.GeoChildrenNames = []
- self.Mesh = []
- self.MeshGroups = []
- self.CheckInterfaces()
- if 'auto' in MeshParameters : self.AutoParam()
- if not(self.MeshPar[0]<0): self.Generate()
- else :
- Config.ListObj.append(self)
- print("Aborting object creation\n ")
+ def DirBoundaries (self, Direction):
+ """
+ This method returns a single interval giving [Xmin,Xmax] or [Ymin,Ymax] according to the required direction.
+ This works particularly well for nonorthogonal objects.
+ Direction : [0,1,2,3] <=> [South, North, West, East]
+ """
+ PtCoor = self.PtCoor
+ PtCoor.append(self.PtCoor[0])
+ if isinstance(Direction, str) :
+ Dir = { 'South' : lambda : 0,
+ 'North' : lambda : 1,
+ 'West' : lambda : 2,
+ 'East' : lambda : 3,}[Direction]()
+ else : Dir = int(Direction)
- def Generate(self) :
- """
- This method generates the geometrical object with the corresponding mesh once all verifications (CheckInterfaces and AutoParam)
- have been accomplished
- """
- import GenFunctions, Alarms, Config
- self = {'Box11' : lambda : GenFunctions.Box11(self),
- 'Box42' : lambda : GenFunctions.Box42(self),
- 'BoxAng32' : lambda : GenFunctions.BoxAng32(self),
- 'CompBox' : lambda : GenFunctions.CompBox(self),
- 'CompBoxF' : lambda : GenFunctions.CompBoxF(self),
- 'NonOrtho' : lambda : GenFunctions.NonOrtho(self),
- 'QuartCyl' : lambda : GenFunctions.QuartCyl(self) }[self.Type]()
+ PtIndex = [0,2,3,1][Dir]
+ DirIndex = [0,0,1,1][Dir]
- if Config.debug : Alarms.Message(self.status) # notification on the result of the generation algorithm
-
+ return sorted([PtCoor[PtIndex][DirIndex],PtCoor[PtIndex+1][DirIndex]])
+ def DirVectors (self, Direction):
+ """
+ This method returns for a given object, the real vectors which define a given direction
+ The interest in using this method is for non-orthogonal objects where the sides can be
+ deviated from the orthogonal basis vectors
+ """
+ if isinstance(Direction, str) :
+ Dir = { 'South' : lambda : 0,
+ 'North' : lambda : 1,
+ 'West' : lambda : 2,
+ 'East' : lambda : 3,}[Direction]()
+ else : Dir = int(Direction)
+ PtCoor = self.PtCoor
+ PtCoor.append(self.PtCoor[0])
+ PtIndex = [0,2,3,1][Dir]
+ return [PtCoor[PtIndex+1][0]-PtCoor[PtIndex][0],PtCoor[PtIndex+1][1]-PtCoor[PtIndex][1],0.]
- def CheckInterfaces(self):
- """
- This method searches for neighbours for the object being created and saves them inside the Config.Connections
- array. This array contains 4 entries per object corresponding to West, East, South, and North neighbours.
- Note that an object may have more than one neighbour for a given direction.
- """
- import Alarms, Config
- from GenFunctions import AddIfDifferent
- from CompositeBox import FindCommonSide
-
- Config.Connections.append([(-1,),(-1,),(-1,),(-1,)])
- itemID = len(Config.ListObj)
- # In all cases except non ortho, PrincipleBoxes is unitary and contains the box in question
- # In the non-ortho case it contains all possible combinations of boxes with 3 vertices
- PrincipleBoxes = self.PrincipleBoxes()
- for i, TestObj in enumerate(Config.ListObj):
- SecondaryBoxes = TestObj.PrincipleBoxes()
- ConnX = 0
- ConnY = 0
- for Box0 in PrincipleBoxes:
- for Box1 in SecondaryBoxes:
- # Along X
- CenterDis = abs(Box1[0][0]-Box0[0][0])
- Extension = 0.5*(Box1[1][0]+Box0[1][0])
- if CenterDis - Extension < -1e-7 :
- ConnX = -1
- elif CenterDis - Extension < 1e-7 :
- if not(FindCommonSide(self.DirBoundaries(2),TestObj.DirBoundaries(3))==[0,0]) and Box1[0][0] < Box0[0][0] : ConnX = 1
- elif not(FindCommonSide(self.DirBoundaries(3),TestObj.DirBoundaries(2))==[0,0]) and Box1[0][0] >= Box0[0][0]: ConnX = 2
- else : ConnX = 0
-
- # Along Y
- CenterDis = abs(Box1[0][1]-Box0[0][1])
- Extension = 0.5*(Box1[1][1]+Box0[1][1])
- if CenterDis - Extension < -1e-7 :
- ConnY = -1
- elif CenterDis - Extension < 1e-7 :
- if not(FindCommonSide(self.DirBoundaries(0),TestObj.DirBoundaries(1))==[0,0]) and Box1[0][1] < Box0[0][1] : ConnY = 1
- elif not(FindCommonSide(self.DirBoundaries(1),TestObj.DirBoundaries(0))==[0,0]) and Box1[0][1] >= Box0[0][1]: ConnY = 2
- else : ConnY = 0
+ def GetBorder (self, Criterion):
+ import GenFunctions, Config
- if not (ConnX*ConnY == 0) :
- if max(ConnX,ConnY) == -1 and not('NonOrtho' in [self.Type,TestObj.Type]) : Alarms.Message(3)
- else:
- if ConnX == 1 and ConnY == -1:
- if Config.Connections[i][1] == (-1,) : Config.Connections[i][1] = (itemID,)
- else : Config.Connections[i][1] = AddIfDifferent(Config.Connections[i][1],itemID)
- if Config.Connections[itemID][0] == (-1,) : Config.Connections[itemID][0] = (i,)
- else : Config.Connections[itemID][0] = AddIfDifferent(Config.Connections[itemID][0],i)
- elif ConnX == 2 and ConnY == -1:
- if Config.Connections[i][0] == (-1,) : Config.Connections[i][0] = (itemID,)
- else : Config.Connections[i][0] = AddIfDifferent(Config.Connections[i][0],itemID)
- if Config.Connections[itemID][1] == (-1,) : Config.Connections[itemID][1] = (i,)
- else : Config.Connections[itemID][1] = AddIfDifferent(Config.Connections[itemID][1],i)
- elif ConnY == 1 and ConnX == -1:
- if Config.Connections[i][3] == (-1,) : Config.Connections[i][3] = (itemID,)
- else : Config.Connections[i][3] = AddIfDifferent(Config.Connections[i][3],itemID)
- if Config.Connections[itemID][2] == (-1,) : Config.Connections[itemID][2] = (i,)
- else : Config.Connections[itemID][2] = AddIfDifferent(Config.Connections[itemID][2],i)
- elif ConnY ==2 and ConnX == -1:
- if Config.Connections[i][2] == (-1,) : Config.Connections[i][2] = (itemID,)
- else : Config.Connections[i][2] = AddIfDifferent(Config.Connections[i][2],itemID)
- if Config.Connections[itemID][3] == (-1,) : Config.Connections[itemID][3] = (i,)
- else : Config.Connections[itemID][3] = AddIfDifferent(Config.Connections[itemID][3],i)
+ from salome.geom import geomBuilder
+ geompy = geomBuilder.New()
- def AutoParam (self):
- """
- This method is called only if the 'auto' keyword is used inside the meshing algorithm. It is based on the
- connection results per object and tries to find the correct parameters for obtaining a final compatible mesh
- between the objects already present and the one being created. If this is not possible, the method gives an error
- message.
- """
- import Alarms, Config, GenFunctions, CompositeBox
- MeshPar = [0,0,0,0] # initialize the mesh parameter value to be used to -1
- [(X0,Y0),(DX,DY)] = self.GeoPar
- ObjectsInvolved = []
- for i, Conn in enumerate(Config.Connections[-1]):
- if not ( Conn == (-1,) ): # Meaning that there is one or more neighbors on this direction
- for ObjID in Conn :
- ToLook0 = [2,3,0,1][i]
- ToLook1 = [3,2,1,0][i]
- CommonSide = CompositeBox.FindCommonSide(Config.ListObj[ObjID].DirBoundaries(ToLook1),self.DirBoundaries(ToLook0))
- #print "Common Side is:", CommonSide
- ToLook2 = [1,0,3,2][i]
- #print "Full Side is:", CompositeBox.IntLen(Config.ListObj[ObjID].DirBoundaries(ToLook1))
- #print "Full Segments on this direction are:", Config.ListObj[ObjID].DirectionalMeshParams[ToLook2]
- RealSegments = round(Config.ListObj[ObjID].DirectionalMeshParams[ToLook2]*CompositeBox.IntLen(CommonSide)/CompositeBox.IntLen(Config.ListObj[ObjID].DirBoundaries(ToLook1)))
- #print "RealSegments :", RealSegments
-
- MeshPar[i] = MeshPar[i] + RealSegments
- ObjectsInvolved.append(ObjID+1)
- self.DirectionalMeshParams = MeshPar
- self.MeshPar[0] = GenFunctions.CompatibilityTest(self)
+ if isinstance(Criterion, str) :
+ Crit = {'South' : lambda : 0,
+ 'North' : lambda : 1,
+ 'West' : lambda : 2,
+ 'East' : lambda : 3,}[Criterion]()
+ else : Crit = int(Criterion)
- if self.MeshPar[0] < 0 :
- Alarms.Message(4)
- if self.MeshPar[0] == -1 : print ("Problem encountered with object(s) no. "+str(ObjectsInvolved))
- elif self.MeshPar[0] == -2 : print ("This object has no neighbours !!!")
+ AcceptedObj = []
+ if Crit < 4 :
+ Boundaries = self.Boundaries()
+ Research = {0 : lambda : [self.DirVectors(0),1,Boundaries[2]],
+ 1 : lambda : [self.DirVectors(1),1,Boundaries[3]],
+ 2 : lambda : [self.DirVectors(2),0,Boundaries[0]],
+ 3 : lambda : [self.DirVectors(3),0,Boundaries[1]], }[Crit]()
- def Boundaries (self):
- """
- This method returns the global boundaries of the MacObject. [Xmin,Xmax,Ymin,Ymax]
- """
- Xmin = min([self.DirBoundaries(i)[0] for i in [0,1]])
- Xmax = max([self.DirBoundaries(i)[1] for i in [0,1]])
- Ymin = min([self.DirBoundaries(i)[0] for i in [2,3]])
- Ymax = max([self.DirBoundaries(i)[1] for i in [2,3]])
-
- return [Xmin,Xmax,Ymin,Ymax]
-
- def DirBoundaries (self, Direction):
- """
- This method returns a single interval giving [Xmin,Xmax] or [Ymin,Ymax] according to the required direction.
- This works particularly well for nonorthogonal objects.
- Direction : [0,1,2,3] <=> [South, North, West, East]
- """
- PtCoor = self.PtCoor
- PtCoor.append(self.PtCoor[0])
- if type(Direction) is str :
- Dir = { 'South' : lambda : 0,
- 'North' : lambda : 1,
- 'West' : lambda : 2,
- 'East' : lambda : 3,}[Direction]()
- else : Dir = int(Direction)
-
- PtIndex = [0,2,3,1][Dir]
- DirIndex = [0,0,1,1][Dir]
-
- return sorted([PtCoor[PtIndex][DirIndex],PtCoor[PtIndex+1][DirIndex]])
- def DirVectors (self, Direction):
- """
- This method returns for a given object, the real vectors which define a given direction
- The interest in using this method is for non-orthogonal objects where the sides can be
- deviated from the orthogonal basis vectors
- """
- if type(Direction) is str :
- Dir = { 'South' : lambda : 0,
- 'North' : lambda : 1,
- 'West' : lambda : 2,
- 'East' : lambda : 3,}[Direction]()
- else : Dir = int(Direction)
- PtCoor = self.PtCoor
- PtCoor.append(self.PtCoor[0])
- PtIndex = [0,2,3,1][Dir]
- return [PtCoor[PtIndex+1][0]-PtCoor[PtIndex][0],PtCoor[PtIndex+1][1]-PtCoor[PtIndex][1],0.]
-
- def GetBorder (self, Criterion):
- import GenFunctions, Config
+ for i,ElemObj in enumerate(self.GeoChildren):
+ EdgeIDs = geompy.ExtractShapes(ElemObj,6)# List of Edge IDs belonging to ElemObj
+ for Edge in EdgeIDs:
+ if GenFunctions.IsParallel(Edge,Research[0]):
+ if abs( geompy.PointCoordinates(geompy.GetVertexByIndex(Edge,0))[Research[1]] - Research[2] )< 1e-6 or abs( geompy.PointCoordinates(geompy.GetVertexByIndex(Edge,1))[Research[1]] - Research[2] )< 1e-6 :
+ AcceptedObj.append(Edge)
+ else :
+ CenterSrchPar = {'NE' : lambda : [-1., -1.],
+ 'NW' : lambda : [ 1., -1.],
+ 'SW' : lambda : [ 1., 1.],
+ 'SE' : lambda : [-1., 1.], }[self.MeshPar[1]]()
+ Radius = self.GeoPar[1][1]*float(self.MeshPar[2])/(self.MeshPar[2]+1)
+ Center = (self.GeoPar[0][0]+CenterSrchPar[0]*self.GeoPar[1][0]/2.,self.GeoPar[0][1]+CenterSrchPar[1]*self.GeoPar[1][1]/2.,0.)
+ for i,ElemObj in enumerate(self.GeoChildren):
+ EdgeIDs = geompy.ExtractShapes(ElemObj,6)# List of Edge IDs belonging to ElemObj
+ for Edge in EdgeIDs:
+ if GenFunctions.IsOnCircle(Edge,Center,Radius):
+ AcceptedObj.append(Edge)
+ return AcceptedObj
- from salome.geom import geomBuilder
- geompy = geomBuilder.New( Config.theStudy )
-
- if type(Criterion) is str :
- Crit = {'South' : lambda : 0,
- 'North' : lambda : 1,
- 'West' : lambda : 2,
- 'East' : lambda : 3,}[Criterion]()
- else : Crit = int(Criterion)
-
- AcceptedObj = []
- if Crit < 4 :
- Boundaries = self.Boundaries()
- Research = {0 : lambda : [self.DirVectors(0),1,Boundaries[2]],
- 1 : lambda : [self.DirVectors(1),1,Boundaries[3]],
- 2 : lambda : [self.DirVectors(2),0,Boundaries[0]],
- 3 : lambda : [self.DirVectors(3),0,Boundaries[1]], }[Crit]()
-
- for i,ElemObj in enumerate(self.GeoChildren):
- EdgeIDs = geompy.ExtractShapes(ElemObj,6)# List of Edge IDs belonging to ElemObj
- for Edge in EdgeIDs:
- if GenFunctions.IsParallel(Edge,Research[0]):
- if abs( geompy.PointCoordinates(geompy.GetVertexByIndex(Edge,0))[Research[1]] - Research[2] )< 1e-6 or abs( geompy.PointCoordinates(geompy.GetVertexByIndex(Edge,1))[Research[1]] - Research[2] )< 1e-6 :
- AcceptedObj.append(Edge)
- else :
- CenterSrchPar = {'NE' : lambda : [-1., -1.],
- 'NW' : lambda : [ 1., -1.],
- 'SW' : lambda : [ 1., 1.],
- 'SE' : lambda : [-1., 1.], }[self.MeshPar[1]]()
- Radius = self.GeoPar[1][1]*float(self.MeshPar[2])/(self.MeshPar[2]+1)
- Center = (self.GeoPar[0][0]+CenterSrchPar[0]*self.GeoPar[1][0]/2.,self.GeoPar[0][1]+CenterSrchPar[1]*self.GeoPar[1][1]/2.,0.)
- for i,ElemObj in enumerate(self.GeoChildren):
- EdgeIDs = geompy.ExtractShapes(ElemObj,6)# List of Edge IDs belonging to ElemObj
- for Edge in EdgeIDs:
- if GenFunctions.IsOnCircle(Edge,Center,Radius):
- AcceptedObj.append(Edge)
- return AcceptedObj
+ def PrincipleBoxes (self):
+ """
+ This function returns all possible combination rectangular shape objects that can contain at least 3 of the principle vertices
+ constituting the MacObject. This is indispensable for the Non-ortho types and shall return a number of 24 possible combinations
+ """
+ from itertools import combinations
+ Boxes = []
+ if self.Type == 'NonOrtho':
+ for combi in combinations(list(range(4)),3):
+ Xmin = min([self.PtCoor[i][0] for i in combi])
+ Xmax = max([self.PtCoor[i][0] for i in combi])
+ Ymin = min([self.PtCoor[i][1] for i in combi])
+ Ymax = max([self.PtCoor[i][1] for i in combi])
+ Boxes.append([(0.5*(Xmin+Xmax),0.5*(Ymin+Ymax)),(Xmax-Xmin,Ymax-Ymin)])
+ else :
+ Boxes = [self.GeoPar]
- def PrincipleBoxes (self):
- """
- This function returns all possible combination rectangular shape objects that can contain at least 3 of the principle vertices
- constituting the MacObject. This is indispensible for the Non-ortho types and shall return a number of 24 possible combinations
- """
- from itertools import combinations
- Boxes = []
- if self.Type == 'NonOrtho':
- for combi in combinations(range(4),3):
- Xmin = min([self.PtCoor[i][0] for i in combi])
- Xmax = max([self.PtCoor[i][0] for i in combi])
- Ymin = min([self.PtCoor[i][1] for i in combi])
- Ymax = max([self.PtCoor[i][1] for i in combi])
- Boxes.append([(0.5*(Xmin+Xmax),0.5*(Ymin+Ymax)),(Xmax-Xmin,Ymax-Ymin)])
- else :
- Boxes = [self.GeoPar]
-
- return Boxes
-
-
+ return Boxes
