def derivedExecute(self,obj):
self.assureProperties(obj)
# cache stuff
objectShape = screen(obj.Object).Shape
placements = lattice2BaseFeature.getPlacementsList(screen(obj.PlacementsTo), obj)
outputIsLattice = lattice2BaseFeature.isObjectLattice(screen(obj.Object))
# Pre-collect base placement list, if base is a lattice. For speed.
if outputIsLattice:
objectPlms = lattice2BaseFeature.getPlacementsList(screen(obj.Object),obj)
placements = DereferenceArray(obj, placements, screen(obj.PlacementsFrom), obj.Referencing)
# initialize output containers and loop variables
outputShapes = [] #output list of shapes
outputPlms = [] #list of placements
copy_method_index = ShapeCopy.getCopyTypeIndex(obj.Copying)
# the essence
for plm in placements:
if outputIsLattice:
for objectPlm in objectPlms:
outputPlms.append(plm.multiply(objectPlm))
else:
outputShape = ShapeCopy.copyShape(objectShape, copy_method_index, plm)
#outputShape.Placement = plm.multiply(outputShape.Placement) # now handled by copyShape
outputShapes.append(outputShape)
if outputIsLattice:
return outputPlms
else:
# Output shape or compound (complex logic involving OutputCompounding property)
#first, autosettle the OutputCompounding.
if obj.OutputCompounding == "(autosettle)":
if hasattr(screen(obj.PlacementsTo),"ExposePlacement") and screen(obj.PlacementsTo).ExposePlacement == False:
obj.OutputCompounding = "always"
else:
obj.OutputCompounding = "only if many"
#now, set the result shape
if len(outputShapes) == 1 and obj.OutputCompounding == "only if many":
sh = outputShapes[0]
sh = ShapeCopy.transformCopy(sh)
obj.Shape = sh
else:
obj.Shape = Part.makeCompound(outputShapes)
return None
def derivedExecute(self,obj):
self.assureProperties(obj)
# cache stuff
objectShape = obj.Object.Shape
placements = lattice2BaseFeature.getPlacementsList(obj.PlacementsTo, obj)
outputIsLattice = lattice2BaseFeature.isObjectLattice(obj.Object)
# Pre-collect base placement list, if base is a lattice. For speed.
if outputIsLattice:
objectPlms = lattice2BaseFeature.getPlacementsList(obj.Object,obj)
placements = DereferenceArray(obj, placements, obj.PlacementsFrom, obj.Referencing)
# initialize output containers and loop variables
outputShapes = [] #output list of shapes
outputPlms = [] #list of placements
copy_method_index = ShapeCopy.getCopyTypeIndex(obj.Copying)
# the essence
for plm in placements:
if outputIsLattice:
for objectPlm in objectPlms:
outputPlms.append(plm.multiply(objectPlm))
else:
outputShape = ShapeCopy.copyShape(objectShape, copy_method_index, plm)
#outputShape.Placement = plm.multiply(outputShape.Placement) # now handled by copyShape
outputShapes.append(outputShape)
if outputIsLattice:
return outputPlms
else:
# Output shape or compound (complex logic involving OutputCompounding property)
#first, autosettle the OutputCompounding.
if obj.OutputCompounding == "(autosettle)":
if hasattr(obj.PlacementsTo,"ExposePlacement") and obj.PlacementsTo.ExposePlacement == False:
obj.OutputCompounding = "always"
else:
obj.OutputCompounding = "only if many"
#now, set the result shape
if len(outputShapes) == 1 and obj.OutputCompounding == "only if many":
sh = outputShapes[0]
sh = ShapeCopy.transformCopy(sh)
obj.Shape = sh
else:
obj.Shape = Part.makeCompound(outputShapes)
return None
def derivedExecute(self,obj):
self.initNewProperties(obj)
outputIsLattice = lattice2BaseFeature.isObjectLattice(screen(obj.Object))
if not lattice2BaseFeature.isObjectLattice(screen(obj.Object)):
if obj.ObjectTraversal == "Direct children only":
objectShapes = screen(obj.Object).Shape.childShapes()
if screen(obj.Object).Shape.ShapeType != "Compound":
lattice2Executer.warning(obj,"shape supplied as object is not a compound. It is going to be downgraded one level down (e.g, if it is a wire, the edges are going to be enumerated as children).")
elif obj.ObjectTraversal == "Recursive":
objectShapes = LCE.AllLeaves(screen(obj.Object).Shape)
else:
raise ValueError("Traversal mode not implemented: "+obj.ObjectTraversal)
else:
objectPlms = lattice2BaseFeature.getPlacementsList(screen(obj.Object), obj)
placements = lattice2BaseFeature.getPlacementsList(screen(obj.PlacementsTo), obj)
# Precompute referencing
placements = DereferenceArray(obj, placements, screen(obj.PlacementsFrom), obj.Referencing)
# initialize output containers and loop variables
outputShapes = [] #output list of shapes
outputPlms = [] #list of placements
iChild = 0
numChildren = len(objectPlms) if outputIsLattice else len(objectShapes)
copy_method_index = ShapeCopy.getCopyTypeIndex(obj.Copying)
# the essence
for iPlm in range(len(placements)):
if iChild == numChildren:
if obj.LoopObjectSequence:
iChild = 0
else:
break
plm = placements[iPlm]
if outputIsLattice:
objectPlm = objectPlms[iChild]
outputPlms.append(plm.multiply(objectPlm))
else:
outputShape = ShapeCopy.copyShape(objectShapes[iChild], copy_method_index, plm)
# outputShape.Placement = plm.multiply(outputShape.Placement) #now done by shape copy routine
outputShapes.append(outputShape)
iChild += 1
if len(placements) > numChildren and not obj.LoopObjectSequence:
lattice2Executer.warning(obj,"There are fewer children to populate, than placements to be populated (%1, %2). Extra placements will be dropped.".replace("%1", str(numChildren)).replace("%2",str(len(placements))))
if len(placements) < numChildren:
lattice2Executer.warning(obj,"There are more children to populate, than placements to be populated (%1, %2). Extra children will be dropped.".replace("%1", str(numChildren)).replace("%2",str(len(placements))))
if outputIsLattice:
return outputPlms
else:
obj.Shape = Part.makeCompound(outputShapes)
return None
def derivedExecute(self,obj):
self.initNewProperties(obj)
outputIsLattice = lattice2BaseFeature.isObjectLattice(obj.Object)
if not lattice2BaseFeature.isObjectLattice(obj.Object):
if obj.ObjectTraversal == "Direct children only":
objectShapes = obj.Object.Shape.childShapes()
if obj.Object.Shape.ShapeType != "Compound":
lattice2Executer.warning(obj,"shape supplied as object is not a compound. It is going to be downgraded one level down (e.g, if it is a wire, the edges are going to be enumerated as children).")
elif obj.ObjectTraversal == "Recursive":
objectShapes = LCE.AllLeaves(obj.Object.Shape)
else:
raise ValueError("Traversal mode not implemented: "+obj.ObjectTraversal)
else:
objectPlms = lattice2BaseFeature.getPlacementsList(obj.Object, obj)
placements = lattice2BaseFeature.getPlacementsList(obj.PlacementsTo, obj)
# Precompute referencing
placements = DereferenceArray(obj, placements, obj.PlacementsFrom, obj.Referencing)
# initialize output containers and loop variables
outputShapes = [] #output list of shapes
outputPlms = [] #list of placements
iChild = 0
numChildren = len(objectPlms) if outputIsLattice else len(objectShapes)
copy_method_index = ShapeCopy.getCopyTypeIndex(obj.Copying)
# the essence
for iPlm in range(len(placements)):
if iChild == numChildren:
if obj.LoopObjectSequence:
iChild = 0
else:
break
plm = placements[iPlm]
if outputIsLattice:
objectPlm = objectPlms[iChild]
outputPlms.append(plm.multiply(objectPlm))
else:
outputShape = ShapeCopy.copyShape(objectShapes[iChild], copy_method_index, plm)
# outputShape.Placement = plm.multiply(outputShape.Placement) #now done by shape copy routine
outputShapes.append(outputShape)
iChild += 1
if len(placements) > numChildren and not obj.LoopObjectSequence:
lattice2Executer.warning(obj,"There are fewer children to populate, than placements to be populated (%1, %2). Extra placements will be dropped.".replace("%1", str(numChildren)).replace("%2",str(len(placements))))
if len(placements) < numChildren:
lattice2Executer.warning(obj,"There are more children to populate, than placements to be populated (%1, %2). Extra children will be dropped.".replace("%1", str(numChildren)).replace("%2",str(len(placements))))
if outputIsLattice:
return outputPlms
else:
obj.Shape = Part.makeCompound(outputShapes)
return None
