# -*- coding: iso-8859-1 -*-
-# Copyright (C) 2007-2008 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) 2007-2010 CEA/DEN, EDF R&D, OPEN CASCADE
#
# This library is free software; you can redistribute it and/or
# modify it under the terms of the GNU Lesser General Public
## @defgroup l4_decompose Decompose objects
## @defgroup l4_access Access to sub-shapes by their unique IDs inside the main shape
## @defgroup l4_obtain Access to subshapes by a criteria
+## @defgroup l4_advanced Advanced objects creation functions
## @}
## @ingroup l1_geompy_auxiliary
def ParseParameters(*parameters):
Result = []
- StringResult = ""
+ StringResult = []
for parameter in parameters:
- if isinstance(parameter,str):
- if notebook.isVariable(parameter):
- Result.append(notebook.get(parameter))
- else:
- raise RuntimeError, "Variable with name '" + parameter + "' doesn't exist!!!"
+ if isinstance(parameter, list):
+ lResults = ParseParameters(*parameter)
+ if len(lResults) > 0:
+ Result.append(lResults[:-1])
+ StringResult += lResults[-1].split(":")
+ pass
+ pass
else:
- Result.append(parameter)
+ if isinstance(parameter,str):
+ if notebook.isVariable(parameter):
+ Result.append(notebook.get(parameter))
+ else:
+ raise RuntimeError, "Variable with name '" + parameter + "' doesn't exist!!!"
+ pass
+ else:
+ Result.append(parameter)
+ pass
+ StringResult.append(str(parameter))
pass
-
- StringResult = StringResult + str(parameter)
- StringResult = StringResult + ":"
pass
- StringResult = StringResult[:len(StringResult)-1]
- Result.append(StringResult)
+ if Result:
+ Result.append(":".join(StringResult))
+ else:
+ Result = ":".join(StringResult)
return Result
## Return list of variables value from salome notebook
self.MeasuOp = None
self.BlocksOp = None
self.GroupOp = None
+ self.AdvOp = None
pass
## @addtogroup l1_geompy_auxiliary
self.MeasuOp = self.GetIMeasureOperations (self.myStudyId)
self.BlocksOp = self.GetIBlocksOperations (self.myStudyId)
self.GroupOp = self.GetIGroupOperations (self.myStudyId)
+ self.AdvOp = self.GetIAdvancedOperations (self.myStudyId)
pass
## Get name for sub-shape aSubObj of shape aMainObj
aSObject = self.AddInStudy(self.myStudy, aShape, aName, None)
if doRestoreSubShapes:
self.RestoreSubShapesSO(self.myStudy, aSObject, theArgs,
- theFindMethod, theInheritFirstArg)
+ theFindMethod, theInheritFirstArg, True )
except:
print "addToStudy() failed"
return ""
# operations, where only the first argument has to be considered.
# If theObject has only one argument shape, this flag is automatically
# considered as True, not regarding really passed value.
+ # \param theAddPrefix add prefix "from_" to names of restored sub-shapes,
+ # and prefix "from_subshapes_of_" to names of partially restored subshapes.
# \return list of published sub-shapes
#
# @ref tui_restore_prs_params "Example"
- def RestoreSubShapes (self, theObject, theArgs=[],
- theFindMethod=GEOM.FSM_GetInPlace, theInheritFirstArg=False):
+ def RestoreSubShapes (self, theObject, theArgs=[], theFindMethod=GEOM.FSM_GetInPlace,
+ theInheritFirstArg=False, theAddPrefix=True):
# Example: see GEOM_TestAll.py
return self.RestoreSubShapesO(self.myStudy, theObject, theArgs,
- theFindMethod, theInheritFirstArg)
+ theFindMethod, theInheritFirstArg, theAddPrefix)
+
+ ## Publish sub-shapes, standing for arguments and sub-shapes of arguments
+ # To be used from python scripts out of geompy.addToStudy (non-default usage)
+ # \param theObject published GEOM object, arguments of which will be published
+ # \param theArgs list of GEOM_Object, operation arguments to be published.
+ # If this list is empty, all operation arguments will be published
+ # \param theFindMethod method to search subshapes, corresponding to arguments and
+ # their subshapes. Value from enumeration GEOM::find_shape_method.
+ # \param theInheritFirstArg set properties of the first argument for <VAR>theObject</VAR>.
+ # Do not publish subshapes in place of arguments, but only
+ # in place of subshapes of the first argument,
+ # because the whole shape corresponds to the first argument.
+ # Mainly to be used after transformations, but it also can be
+ # usefull after partition with one object shape, and some other
+ # operations, where only the first argument has to be considered.
+ # If theObject has only one argument shape, this flag is automatically
+ # considered as True, not regarding really passed value.
+ # \param theAddPrefix add prefix "from_" to names of restored sub-shapes,
+ # and prefix "from_subshapes_of_" to names of partially restored subshapes.
+ # \return list of published sub-shapes
+ #
+ # @ref tui_restore_prs_params "Example"
+ def RestoreGivenSubShapes (self, theObject, theArgs=[], theFindMethod=GEOM.FSM_GetInPlace,
+ theInheritFirstArg=False, theAddPrefix=True):
+ # Example: see GEOM_TestAll.py
+ return self.RestoreGivenSubShapesO(self.myStudy, theObject, theArgs,
+ theFindMethod, theInheritFirstArg, theAddPrefix)
# end of l3_restore_ss
## @}
# @return New GEOM_Object, containing the created point.
#
# @ref tui_creation_point "Example"
- def MakeVertex(self,theX, theY, theZ):
+ def MakeVertex(self, theX, theY, theZ):
# Example: see GEOM_TestAll.py
theX,theY,theZ,Parameters = ParseParameters(theX, theY, theZ)
anObj = self.BasicOp.MakePointXYZ(theX, theY, theZ)
# @param theFace The face for which tangent plane should be built.
# @param theParameterV vertical value of the center point (0.0 - 1.0).
# @param theParameterU horisontal value of the center point (0.0 - 1.0).
- # @param theTrimSize the size of plane.
+ # @param theTrimSize the size of plane.
# @return New GEOM_Object, containing the created tangent.
#
# @ref swig_MakeTangentPlaneOnFace "Example"
- def MakeTangentPlaneOnFace(self, theFace, theParameterU, theParameterV, theTrimSize):
- anObj = self.BasicOp.MakeTangentPlaneOnFace(theFace, theParameterU, theParameterV, theTrimSize)
- RaiseIfFailed("MakeTangentPlaneOnFace", self.BasicOp)
+ def MakeTangentPlaneOnFace(self, theFace, theParameterU, theParameterV, theTrimSize):
+ anObj = self.BasicOp.MakeTangentPlaneOnFace(theFace, theParameterU, theParameterV, theTrimSize)
+ RaiseIfFailed("MakeTangentPlaneOnFace", self.BasicOp)
return anObj
## Create a vector with the given components.
RaiseIfFailed("MakeMarker", self.BasicOp)
anObj.SetParameters(Parameters)
return anObj
-
+
## Create a local coordinate system from shape.
# @param theShape The initial shape to detect the coordinate system.
# @return New GEOM_Object, containing the created coordinate system.
# @param theYVec Vector of Y direction
# @return New GEOM_Object, containing the created coordinate system.
#
- # @ref tui_creation_lcs "Example"
+ # @ref tui_creation_lcs "Example"
def MakeMarkerPntTwoVec(self, theOrigin, theXVec, theYVec):
anObj = self.BasicOp.MakeMarkerPntTwoVec(theOrigin, theXVec, theYVec)
RaiseIfFailed("MakeMarkerPntTwoVec", self.BasicOp)
anObj = self.CurvesOp.MakeArcCenter(thePnt1, thePnt2, thePnt3, theSense)
RaiseIfFailed("MakeArcCenter", self.CurvesOp)
return anObj
-
+
## Create an arc of ellipse, of center and two points.
# @param theCenter Center of the arc.
# @param thePnt1 defines major radius of the arc by distance from Pnt1 to Pnt2.
RaiseIfFailed("MakeSketcherOnPlane", self.CurvesOp)
return anObj
- ## Create a sketcher wire, following the numerical description,
+ ## Create a sketcher wire, following the numerical description,
# passed through <VAR>theCoordinates</VAR> argument. \n
- # @param theCoordinates double values, defining points to create a wire,
+ # @param theCoordinates double values, defining points to create a wire,
# passing from it.
# @return New GEOM_Object, containing the created wire.
#
# @ref tui_sketcher_page "Example"
def Make3DSketcher(self, theCoordinates):
+ theCoordinates,Parameters = ParseParameters(theCoordinates)
anObj = self.CurvesOp.Make3DSketcher(theCoordinates)
RaiseIfFailed("Make3DSketcher", self.CurvesOp)
+ anObj.SetParameters(Parameters)
return anObj
# end of l3_sketcher
# with edges, parallel to this coordinate axes.
# @param theH height of Face.
# @param theW width of Face.
- # @param theOrientation orientation belong axis OXY OYZ OZX
+ # @param theOrientation orientation belong axis OXY OYZ OZX
# @return New GEOM_Object, containing the created face.
#
# @ref tui_creation_face "Example"
## Create a face from another plane and two sizes,
# vertical size and horisontal size.
# @param theObj Normale vector to the creating face or
- # the face object.
+ # the face object.
# @param theH Height (vertical size).
# @param theW Width (horisontal size).
# @return New GEOM_Object, containing the created face.
## Create a disk with specified dimensions along OX-OY coordinate axes.
# @param theR Radius of Face.
- # @param theOrientation set the orientation belong axis OXY or OYZ or OZX
+ # @param theOrientation set the orientation belong axis OXY or OYZ or OZX
# @return New GEOM_Object, containing the created disk.
#
# @ref tui_creation_face "Example"
# @param theTol2D a 2d tolerance to be reached
# @param theTol3D a 3d tolerance to be reached
# @param theNbIter a number of iteration of approximation algorithm
+ # @param theMethod Kind of method to perform filling operation:
+ # 0 - Default - standard behaviour
+ # 1 - Use edges orientation - orientation of edges are
+ # used: if edge is reversed curve from this edge
+ # is reversed before using in filling algorithm.
+ # 2 - Auto-correct orientation - change orientation
+ # of curves using minimization of sum of distances
+ # between ends points of edges.
# @param isApprox if True, BSpline curves are generated in the process
# of surface construction. By default it is False, that means
# the surface is created using Besier curves. The usage of
# @return New GEOM_Object, containing the created filling surface.
#
# @ref tui_creation_filling "Example"
- def MakeFilling(self, theShape, theMinDeg, theMaxDeg, theTol2D, theTol3D, theNbIter, isApprox=0):
+ def MakeFilling(self, theShape, theMinDeg, theMaxDeg, theTol2D,
+ theTol3D, theNbIter, theMethod=GEOM.FOM_Default, isApprox=0):
# Example: see GEOM_TestAll.py
- theMinDeg,theMaxDeg,theTol2D,theTol3D,theNbIter,Parameters = ParseParameters(theMinDeg, theMaxDeg,
- theTol2D, theTol3D, theNbIter)
+ theMinDeg,theMaxDeg,theTol2D,theTol3D,theNbIter,Parameters = ParseParameters(theMinDeg, theMaxDeg, theTol2D, theTol3D, theNbIter)
anObj = self.PrimOp.MakeFilling(theShape, theMinDeg, theMaxDeg,
- theTol2D, theTol3D, theNbIter, isApprox)
+ theTol2D, theTol3D, theNbIter,
+ theMethod, isApprox)
RaiseIfFailed("MakeFilling", self.PrimOp)
anObj.SetParameters(Parameters)
return anObj
## Create a shape by extrusion of the profile shape along
# the path shape. The path shape can be a wire or an edge.
- # the several profiles can be specified in the several locations of path.
+ # the several profiles can be specified in the several locations of path.
# @param theSeqBases - list of Bases shape to be extruded.
# @param theLocations - list of locations on the path corresponding
# specified list of the Bases shapes. Number of locations
## Create a shape by extrusion of the profile shape along
# the path shape. The path shape can be a wire or a edge.
- # the several profiles can be specified in the several locations of path.
+ # the several profiles can be specified in the several locations of path.
# @param theSeqBases - list of Bases shape to be extruded. Base shape must be
# shell or face. If number of faces in neighbour sections
# aren't coincided result solid between such sections will
## Find in \a theShape all sub-shapes of type \a theShapeType,
# situated relatively the specified \a theCheckShape by the
# certain way, defined through \a theState parameter.
- # @param theCheckShape Shape for relative comparing.
+ # @param theCheckShape Shape for relative comparing. It must be a solid.
# @param theShape Shape to find sub-shapes of.
# @param theShapeType Type of sub-shapes to be retrieved.
# @param theState The state of the subshapes to find. It can be one of
# @return New GEOM_Object, containing processed shape.
#
# @ref tui_shape_processing "Example"
- def ProcessShape(self,theShape, theOperators, theParameters, theValues):
+ def ProcessShape(self, theShape, theOperators, theParameters, theValues):
# Example: see GEOM_TestHealing.py
theValues,Parameters = ParseList(theValues)
anObj = self.HealOp.ProcessShape(theShape, theOperators, theParameters, theValues)
+ # To avoid script failure in case of good argument shape
+ if self.HealOp.GetErrorCode() == "ShHealOper_NotError_msg":
+ return theShape
RaiseIfFailed("ProcessShape", self.HealOp)
for string in (theOperators + theParameters):
Parameters = ":" + Parameters
# @return New GEOM_Object, containing processed shape.
#
# @ref swig_todo "Example"
- def ChangeOrientationShellCopy(self,theObject):
+ def ChangeOrientationShellCopy(self, theObject):
anObj = self.HealOp.ChangeOrientationCopy(theObject)
RaiseIfFailed("ChangeOrientationCopy", self.HealOp)
return anObj
+ ## Try to limit tolerance of the given object by value \a theTolerance.
+ # @param theObject Shape to be processed.
+ # @param theTolerance Required tolerance value.
+ # @return New GEOM_Object, containing processed shape.
+ #
+ # @ref tui_limit_tolerance "Example"
+ def LimitTolerance(self, theObject, theTolerance = 1e-07):
+ anObj = self.HealOp.LimitTolerance(theObject, theTolerance)
+ RaiseIfFailed("LimitTolerance", self.HealOp)
+ return anObj
+
## Get a list of wires (wrapped in GEOM_Object-s),
# that constitute a free boundary of the given shape.
# @param theObject Shape to get free boundary of.
# theOpenWires: Open wires on the free boundary of the given shape.
#
# @ref tui_measurement_tools_page "Example"
- def GetFreeBoundary(self,theObject):
+ def GetFreeBoundary(self, theObject):
# Example: see GEOM_TestHealing.py
anObj = self.HealOp.GetFreeBoundary(theObject)
RaiseIfFailed("GetFreeBoundary", self.HealOp)
# in order to avoid possible intersection between shapes from
# this compound.
# @param Limit Type of resulting shapes (corresponding to TopAbs_ShapeEnum).
- # @param KeepNonlimitShapes: if this parameter == 0 - only shapes with
- # type <= Limit are kept in the result,
- # else - shapes with type > Limit are kept
- # also (if they exist)
+ # @param KeepNonlimitShapes: if this parameter == 0, then only shapes of
+ # target type (equal to Limit) are kept in the result,
+ # else standalone shapes of lower dimension
+ # are kept also (if they exist).
#
# After implementation new version of PartitionAlgo (October 2006)
# other parameters are ignored by current functionality. They are kept
## Modify the Location of the given object by Path,
# @param theObject The object to be displaced.
# @param thePath Wire or Edge along that the object will be translated.
- # @param theDistance progress of Path (0 = start location, 1 = end of path location).
- # @param theCopy is to create a copy objects if true.
- # @param theReverse - 0 for usual direction, 1 to reverse path direction.
+ # @param theDistance progress of Path (0 = start location, 1 = end of path location).
+ # @param theCopy is to create a copy objects if true.
+ # @param theReverse - 0 for usual direction, 1 to reverse path direction.
# @return New GEOM_Object, containing the displaced shape.
#
# @ref tui_modify_location "Example"
# @return New GEOM_Object, containing the found vertex.
#
# @ref swig_GetPoint "Example"
- def GetPoint(self,theShape, theX, theY, theZ, theEpsilon):
+ def GetPoint(self, theShape, theX, theY, theZ, theEpsilon):
# Example: see GEOM_TestOthers.py
anObj = self.BlocksOp.GetPoint(theShape, theX, theY, theZ, theEpsilon)
RaiseIfFailed("GetPoint", self.BlocksOp)
return anObj
+ ## Find a vertex of the given shape, which has minimal distance to the given point.
+ # @param theShape Any shape.
+ # @param thePoint Point, close to the desired vertex.
+ # @return New GEOM_Object, containing the found vertex.
+ #
+ # @ref swig_GetVertexNearPoint "Example"
+ def GetVertexNearPoint(self, theShape, thePoint):
+ # Example: see GEOM_TestOthers.py
+ anObj = self.BlocksOp.GetVertexNearPoint(theShape, thePoint)
+ RaiseIfFailed("GetVertexNearPoint", self.BlocksOp)
+ return anObj
+
## Get an edge, found in the given shape by two given vertices.
# @param theShape Block or a compound of blocks.
# @param thePoint1,thePoint2 Points, close to the ends of the desired edge.
# @return New GEOM_Object, containing the found edge.
#
- # @ref swig_todo "Example"
- def GetEdge(self,theShape, thePoint1, thePoint2):
+ # @ref swig_GetEdge "Example"
+ def GetEdge(self, theShape, thePoint1, thePoint2):
# Example: see GEOM_Spanner.py
anObj = self.BlocksOp.GetEdge(theShape, thePoint1, thePoint2)
RaiseIfFailed("GetEdge", self.BlocksOp)
# @return New GEOM_Object, containing the found edge.
#
# @ref swig_GetEdgeNearPoint "Example"
- def GetEdgeNearPoint(self,theShape, thePoint):
+ def GetEdgeNearPoint(self, theShape, thePoint):
# Example: see GEOM_TestOthers.py
anObj = self.BlocksOp.GetEdgeNearPoint(theShape, thePoint)
RaiseIfFailed("GetEdgeNearPoint", self.BlocksOp)
# @return New GEOM_Object, containing the found face.
#
# @ref swig_GetFaceNearPoint "Example"
- def GetFaceNearPoint(self,theShape, thePoint):
+ def GetFaceNearPoint(self, theShape, thePoint):
# Example: see GEOM_Spanner.py
anObj = self.BlocksOp.GetFaceNearPoint(theShape, thePoint)
RaiseIfFailed("GetFaceNearPoint", self.BlocksOp)
RaiseIfFailed("GetFaceByNormale", self.BlocksOp)
return anObj
+ ## Find all subshapes of type \a theShapeType of the given shape,
+ # which have minimal distance to the given point.
+ # @param theShape Any shape.
+ # @param thePoint Point, close to the desired shape.
+ # @param theShapeType Defines what kind of subshapes is searched.
+ # @param theTolerance The tolerance for distances comparison. All shapes
+ # with distances to the given point in interval
+ # [minimal_distance, minimal_distance + theTolerance] will be gathered.
+ # @return New GEOM_Object, containing a group of all found shapes.
+ #
+ # @ref swig_GetShapesNearPoint "Example"
+ def GetShapesNearPoint(self, theShape, thePoint, theShapeType, theTolerance = 1e-07):
+ # Example: see GEOM_TestOthers.py
+ anObj = self.BlocksOp.GetShapesNearPoint(theShape, thePoint, theShapeType, theTolerance)
+ RaiseIfFailed("GetShapesNearPoint", self.BlocksOp)
+ return anObj
+
# end of l3_blocks_op
## @}
# end of l3_groups
## @}
+ ## @addtogroup l4_advanced
+ ## @{
+
+ ## Create a T-shape object with specified caracteristics for the main
+ # and the incident pipes (radius, width, half-length).
+ # The extremities of the main pipe are located on junctions points P1 and P2.
+ # The extremity of the incident pipe is located on junction point P3.
+ # If P1, P2 and P3 are not given, the center of the shape is (0,0,0) and
+ # the main plane of the T-shape is XOY.
+ # @param theR1 Internal radius of main pipe
+ # @param theW1 Width of main pipe
+ # @param theL1 Half-length of main pipe
+ # @param theR2 Internal radius of incident pipe (R2 < R1)
+ # @param theW2 Width of incident pipe (R2+W2 < R1+W1)
+ # @param theL2 Half-length of incident pipe
+ # @param theHexMesh Boolean indicating if shape is prepared for hex mesh (default=True)
+ # @param theP1 1st junction point of main pipe
+ # @param theP2 2nd junction point of main pipe
+ # @param theP3 Junction point of incident pipe
+ # @return List of GEOM_Objects, containing the created shape and propagation groups.
+ #
+ # @ref tui_creation_pipetshape "Example"
+ def MakePipeTShape(self, theR1, theW1, theL1, theR2, theW2, theL2, theHexMesh=True, theP1=None, theP2=None, theP3=None):
+ theR1, theW1, theL1, theR2, theW2, theL2, Parameters = ParseParameters(theR1, theW1, theL1, theR2, theW2, theL2)
+ if (theP1 and theP2 and theP3):
+ anObj = self.AdvOp.MakePipeTShapeWithPosition(theR1, theW1, theL1, theR2, theW2, theL2, theHexMesh, theP1, theP2, theP3)
+ else:
+ anObj = self.AdvOp.MakePipeTShape(theR1, theW1, theL1, theR2, theW2, theL2, theHexMesh)
+ RaiseIfFailed("MakePipeTShape", self.AdvOp)
+ if Parameters: anObj[0].SetParameters(Parameters)
+ return anObj
+
+ ## Create a T-shape object with chamfer and with specified caracteristics for the main
+ # and the incident pipes (radius, width, half-length). The chamfer is
+ # created on the junction of the pipes.
+ # The extremities of the main pipe are located on junctions points P1 and P2.
+ # The extremity of the incident pipe is located on junction point P3.
+ # If P1, P2 and P3 are not given, the center of the shape is (0,0,0) and
+ # the main plane of the T-shape is XOY.
+ # @param theR1 Internal radius of main pipe
+ # @param theW1 Width of main pipe
+ # @param theL1 Half-length of main pipe
+ # @param theR2 Internal radius of incident pipe (R2 < R1)
+ # @param theW2 Width of incident pipe (R2+W2 < R1+W1)
+ # @param theL2 Half-length of incident pipe
+ # @param theH Height of the chamfer.
+ # @param theW Width of the chamfer.
+ # @param theHexMesh Boolean indicating if shape is prepared for hex mesh (default=True)
+ # @param theP1 1st junction point of main pipe
+ # @param theP2 2nd junction point of main pipe
+ # @param theP3 Junction point of incident pipe
+ # @return List of GEOM_Objects, containing the created shape and propagation groups.
+ #
+ # @ref tui_creation_pipetshape "Example"
+ def MakePipeTShapeChamfer(self, theR1, theW1, theL1, theR2, theW2, theL2, theH, theW, theHexMesh=True, theP1=None, theP2=None, theP3=None):
+ theR1, theW1, theL1, theR2, theW2, theL2, theH, theW, Parameters = ParseParameters(theR1, theW1, theL1, theR2, theW2, theL2, theH, theW)
+ if (theP1 and theP2 and theP3):
+ anObj = self.AdvOp.MakePipeTShapeChamferWithPosition(theR1, theW1, theL1, theR2, theW2, theL2, theH, theW, theHexMesh, theP1, theP2, theP3)
+ else:
+ anObj = self.AdvOp.MakePipeTShapeChamfer(theR1, theW1, theL1, theR2, theW2, theL2, theH, theW, theHexMesh)
+ RaiseIfFailed("MakePipeTShapeChamfer", self.AdvOp)
+ if Parameters: anObj[0].SetParameters(Parameters)
+ return anObj
+
+ ## Create a T-shape object with fillet and with specified caracteristics for the main
+ # and the incident pipes (radius, width, half-length). The fillet is
+ # created on the junction of the pipes.
+ # The extremities of the main pipe are located on junctions points P1 and P2.
+ # The extremity of the incident pipe is located on junction point P3.
+ # If P1, P2 and P3 are not given, the center of the shape is (0,0,0) and
+ # the main plane of the T-shape is XOY.
+ # @param theR1 Internal radius of main pipe
+ # @param theW1 Width of main pipe
+ # @param theL1 Half-length of main pipe
+ # @param theR2 Internal radius of incident pipe (R2 < R1)
+ # @param theW2 Width of incident pipe (R2+W2 < R1+W1)
+ # @param theL2 Half-length of incident pipe
+ # @param theRF Radius of curvature of fillet.
+ # @param theHexMesh Boolean indicating if shape is prepared for hex mesh (default=True)
+ # @param theP1 1st junction point of main pipe
+ # @param theP2 2nd junction point of main pipe
+ # @param theP3 Junction point of incident pipe
+ # @return List of GEOM_Objects, containing the created shape and propagation groups.
+ #
+ # @ref tui_creation_pipetshape "Example"
+ def MakePipeTShapeFillet(self, theR1, theW1, theL1, theR2, theW2, theL2, theRF, theHexMesh=True, theP1=None, theP2=None, theP3=None):
+ theR1, theW1, theL1, theR2, theW2, theL2, theRF, Parameters = ParseParameters(theR1, theW1, theL1, theR2, theW2, theL2, theRF)
+ if (theP1 and theP2 and theP3):
+ anObj = self.AdvOp.MakePipeTShapeFilletWithPosition(theR1, theW1, theL1, theR2, theW2, theL2, theRF, theHexMesh, theP1, theP2, theP3)
+ else:
+ anObj = self.AdvOp.MakePipeTShapeFillet(theR1, theW1, theL1, theR2, theW2, theL2, theRF, theHexMesh)
+ RaiseIfFailed("MakePipeTShapeFillet", self.AdvOp)
+ if Parameters: anObj[0].SetParameters(Parameters)
+ return anObj
+
+ #@@ insert new functions before this line @@ do not remove this line @@#
+
+ # end of l4_advanced
+ ## @}
+
## Create a copy of the given object
# @ingroup l1_geompy_auxiliary
#
