def execute(self):
shape = context.getState().shape
# only 2D shapes can be translated at the moment!
if not isinstance(shape, Shape2d): return
# rotation matrix, note True as the third parameter to rotation_zNormal_xHorizontal(..)
matrix = rotation_zNormal_xHorizontal(shape.firstLoop, shape.getNormal(), True)
bmesh.ops.translate(context.bm, verts=shape.face.verts, vec=matrix * mathutils.Vector(self.vec))
def execute(self):
bm = context.bm
state = context.getState()
shape = state.shape
# get rectangle origin
origin = shape.center()
xVec = self.xSize/2 * xAxis
yVec = self.ySize/2 * yAxis
if self.replace:
context.popState()
shape.delete()
# rotation matrix
matrix = rotation_zNormal_xHorizontal(shape.firstLoop, shape.getNormal())
shape = createRectangle((
bm.verts.new( (-xVec - yVec)*matrix + origin),
bm.verts.new( ( xVec - yVec)*matrix + origin),
bm.verts.new( ( xVec + yVec)*matrix + origin),
bm.verts.new( (-xVec + yVec)*matrix + origin)
))
if self.operator:
context.pushState(shape=shape)
self.operator.execute()
context.popState()
elif self.replace:
context.pushState(shape=shape)
def execute(self):
state = context.getState()
shape = state.shape.extrude(self)
if self.parts:
decompose_execute(shape, self.parts)
else:
state.shape = shape
def execute(self): state = context.getState() shape = state.shape.extrude(self) if self.parts: decompose_execute(shape, self.parts) else: state.shape = shape
def execute(self):
materialManager = context.materialManager
material = materialManager.getMaterial(self.material)
if material:
materialIndex = materialManager.getMaterialIndex(self.material)
# assign material to the bmesh face
shape = context.getState().shape
shape.clearUVlayers()
shape.face.material_index = materialIndex
def execute(self):
shape = context.getState().shape
# We now know the absolute shape size, so let's update self.parts
# for self.symmetric = True and self.relativeCoord1 = False
if self.symmetric and not self.relativeCoord1:
self.updateSymmetricAbsolute(shape)
shapesWithRule = shape.extrude2(self.parts, self)
# apply the rule for each shape in shapesWithRule list
for entry in shapesWithRule:
context.pushState(shape=entry[0])
entry[1].execute()
context.popState()
def execute(self):
shape = context.getState().shape
# only 2D shapes can be copied at the moment!
if not isinstance(shape, Shape2d): return
duplicate = bmesh.ops.duplicate(context.bm, geom = (shape.face,))
copiedFace = [entry for entry in duplicate["geom"] if isinstance(entry, bmesh.types.BMFace)][0]
constructor = type(shape)
copiedShape = constructor(copiedFace.loops[0])
if self.operator:
context.pushState(shape=copiedShape)
self.operator.execute()
context.popState()
def execute(self):
materialManager = context.materialManager
colorHex = self.colorHex
material = materialManager.getMaterial(colorHex)
if material:
materialIndex = materialManager.getMaterialIndex(colorHex)
else:
material = bpy.data.materials.new(colorHex)
material.diffuse_color = self.color + (0xff, )
materialManager.setMaterial(colorHex, material)
materialIndex = materialManager.getMaterialIndex(colorHex)
# assign material to the bmesh face
shape = context.getState().shape
shape.clearUVlayers()
shape.face.material_index = materialIndex
def execute(self):
materialManager = context.materialManager
colorHex = self.colorHex
material = materialManager.getMaterial(colorHex)
if material:
materialIndex = materialManager.getMaterialIndex(colorHex)
else:
material = bpy.data.materials.new(colorHex)
material.diffuse_color = self.color + (0xff,)
materialManager.setMaterial(colorHex, material)
materialIndex = materialManager.getMaterialIndex(colorHex)
# assign material to the bmesh face
shape = context.getState().shape
shape.clearUVlayers()
shape.face.material_index = materialIndex
def execute(self):
shape = context.getState().shape
parts = self.parts if self.reverse == False else reversed(self.parts)
# Calculate cuts.
# cuts is a list of tuples (cutShape, ruleForTheCutShape)
cuts = shape.split(self.direction, parts)
if len(cuts) == 1:
# degenerate case, i.e. no cut is needed
cuts[0][2].execute()
else:
# apply the rule for each cut
for cut in cuts:
context.pushState(shape=cut[1])
cut[2].execute()
context.popState()
def execute(self): shape = context.getState().shape parts = self.parts if self.reverse==False else reversed(self.parts) # Calculate cuts. # cuts is a list of tuples (cutShape, ruleForTheCutShape) cuts = shape.split(self.direction, parts) if len(cuts)==1: # degenerate case, i.e. no cut is needed cuts[0][2].execute() else: # apply the rule for each cut for cut in cuts: context.pushState(shape=cut[1]) cut[2].execute() context.popState()
def execute(self):
shape = context.getState().shape
bm = context.bm
if self.path=="" and self.width==0 and self.height==0:
pass
else:
shape.setUV(self.layer, self)
# now deal with the related material
materialManager = context.materialManager
path = self.path
name = os.path.basename(path)
material = materialManager.getMaterial(name)
if not material:
material = materialManager.createMaterial(name, (self,))
if material:
materialIndex = materialManager.getMaterialIndex(name)
shape.face.material_index = materialIndex
# set preview texture
materialManager.setPreviewTexture(shape, materialIndex)
def execute(self):
shape = context.getState().shape
bm = context.bm
if self.path == "" and self.width == 0 and self.height == 0:
pass
else:
shape.setUV(self.layer, self)
# now deal with the related material
materialManager = context.materialManager
path = self.path
name = os.path.basename(path)
material = materialManager.getMaterial(name)
if not material:
material = materialManager.createMaterial(name, (self, ))
if material:
materialIndex = materialManager.getMaterialIndex(name)
shape.face.material_index = materialIndex
# set preview texture
materialManager.setPreviewTexture(shape, materialIndex)
def execute(self):
shape = context.getState().shape
face = shape.face
self.init(len(face.verts))
manager = Manager()
roof = Roof(face.verts, shape.getNormal(), manager)
# soffits
if self.soffits:
manager.rule = self.soffit
roof.inset(*self.soffits, negate=True)
# fascias
if self.fasciaSize:
manager.rule = self.fascia
roof.translate(self.fasciaSize)
# hip roof itself
manager.rule = self.face
roof.roof(*self.pitches)
shape.delete()
# finalizing: if there is a rule for the shape, execute it
for entry in manager.shapes:
context.pushState(shape=entry[0])
entry[1].execute()
context.popState()
def execute(self):
shape = context.getState().shape
face = shape.face
self.init(len(face.verts))
manager = Manager()
roof = Roof(face.verts, shape.getNormal(), manager)
# soffits
if self.soffits:
manager.rule = self.soffit
roof.inset(*self.soffits, negate=True)
# fascias
if self.fasciaSize:
manager.rule = self.fascia
roof.translate(self.fasciaSize)
# hip roof itself
manager.rule = self.face
roof.roof(*self.pitches)
shape.delete()
# finalizing: if there is a rule for the shape, execute it
for entry in manager.shapes:
context.pushState(shape=entry[0])
entry[1].execute()
context.popState()
def execute(self):
shape = context.getState().shape
face = shape.face
manager = Manager()
polygon = Polygon(face.verts, shape.getNormal(), manager)
manager.rule = self.side
kwargs = {"height": self.height} if self.height else {}
polygon.inset(*self.insets, **kwargs)
# create a shape for the cap if necessary
cap = self.cap
if not isinstance(cap, Delete):
shape = polygon.getShape(type(shape))
if cap:
context.pushState(shape=shape)
self.cap.execute()
context.popState()
if not self.keepOriginal:
context.facesForRemoval.append(face)
# finalizing: if there is a rule for the shape, execute it
for entry in manager.shapes:
context.pushState(shape=entry[0])
entry[1].execute()
context.popState()
def execute(self):
shape = context.getState().shape
face = shape.face
manager = Manager()
polygon = Polygon(face.verts, shape.getNormal(), manager)
# process each inset
for inset in self.insets:
if isinstance(inset, tuple):
height = inset[1]
if isinstance(height, Operator):
rule = height
height = height.value
else:
rule = self.side
manager.rule = rule
if float(inset[0]): # not zero
kwargs = {"height": height} if height else {}
polygon.inset(inset[0], **kwargs)
else:
polygon.translate(height)
# create a shape for the cap if necessary
cap = self.cap
if not isinstance(cap, Delete):
shape = polygon.getShape(type(shape))
if cap:
context.pushState(shape=shape)
self.cap.execute()
context.popState()
if not self.keepOriginal:
context.facesForRemoval.append(face)
# finalizing: if there is a rule for the shape, execute it
for entry in manager.shapes:
context.pushState(shape=entry[0])
entry[1].execute()
context.popState()
def execute(self):
shape = context.getState().shape
context.addDeferred(shape, self)
def execute(self):
shape = context.getState().shape
shape.delete()
def execute(self):
shape = context.getState().shape
shape.delete()
def execute(self): decompose_execute(context.getState().shape, self.parts)
