def __init__(self, wall, o):
self.wall = wall
self.o = o
# get neighbor EMPTYs for <o>
o2 = wall.getCornerEmpty(o)
self.o2 = o2
o1 = wall.getPrevious(o2)
self.o1 = o1
context = wall.context
# temporarily remove drivers for the segment EMPTY object
o.driver_remove("location")
# get neighbor EMPTYs for <o1> and <o2>
e1 = wall.getPrevious(o1)
attached1 = None if e1 else wall.getReferencesForAttached(o1)
self.attached1 = attached1
e2 = wall.getNext(o2)
attached2 = None if e2 else wall.getReferencesForAttached(o2)
self.attached2 = attached2
# vectors
if e1:
v1 = o1.location - e1.location
elif attached1:
v1 = attached1[1].location - attached1[0].location
if e2:
v2 = e2.location - o2.location
elif attached2:
v2 = attached2[1].location - attached2[0].location
p = None
if (e1 or attached1) and (e2 or attached2):
# check if v1 and v2 are parallel
if v1.normalized().cross(v2.normalized()).length < zero2:
# orient <o> along v1, which gives the same effect as orienting <o> along v2
dy, dx = v1.y, v1.x
else:
# point where the lines defined by v1 and v2 intersect
l1 = (e1, o1) if e1 else attached1
l2 = (o2, e2) if e2 else attached2
p = intersect_line_line(l1[0].location, l1[1].location,
l2[0].location, l2[1].location)[0]
# orient <o> along the line defined by <o> and <p>
dy, dx = o.location.y - p.y, o.location.x - p.x
elif e1 or attached1 or e2 or attached2:
_v = v1 if e1 or attached1 else v2
# orient <o> along <_v>
dy, dx = _v.y, _v.x
else:
# orient <o> along the normal to the wall segment defined by <o>
dy, dx = o1.location.x - o2.location.x, o2.location.y - o1.location.y
o.rotation_euler[2] = math.atan2(dy, dx)
context.scene.update()
# adding drivers for o1 and o2
addMoverDrivers(o1, o, p)
addMoverDrivers(o2, o, p)
makeActiveSelected(context, o)
def __init__(self, wall, o):
self.wall = wall
self.o = o
# get neighbor EMPTYs for <o>
o2 = wall.getCornerEmpty(o)
self.o2 = o2
o1 = wall.getPrevious(o2)
self.o1 = o1
context = wall.context
# temporarily remove drivers for the segment EMPTY object
o.driver_remove("location")
# get neighbor EMPTYs for <o1> and <o2>
e1 = wall.getPrevious(o1)
attached1 = None if e1 else wall.getReferencesForAttached(o1)
self.attached1 = attached1
e2 = wall.getNext(o2)
attached2 = None if e2 else wall.getReferencesForAttached(o2)
self.attached2 = attached2
# vectors
if e1:
v1 = o1.location - e1.location
elif attached1:
v1 = attached1[1].location - attached1[0].location
if e2:
v2 = e2.location - o2.location
elif attached2:
v2 = attached2[1].location - attached2[0].location
p = None
if (e1 or attached1) and (e2 or attached2):
# check if v1 and v2 are parallel
if v1.normalized().cross(v2.normalized()).length < zero2:
# orient <o> along v1, which gives the same effect as orienting <o> along v2
dy, dx = v1.y, v1.x
else:
# point where the lines defined by v1 and v2 intersect
l1 = (e1, o1) if e1 else attached1
l2 = (o2, e2) if e2 else attached2
p = intersect_line_line(l1[0].location, l1[1].location, l2[0].location, l2[1].location)[0]
# orient <o> along the line defined by <o> and <p>
dy, dx = o.location.y-p.y, o.location.x-p.x
elif e1 or attached1 or e2 or attached2:
_v = v1 if e1 or attached1 else v2
# orient <o> along <_v>
dy, dx = _v.y, _v.x
else:
# orient <o> along the normal to the wall segment defined by <o>
dy, dx = o1.location.x-o2.location.x, o2.location.y-o1.location.y
o.rotation_euler[2] = math.atan2(dy, dx)
context.scene.update()
# adding drivers for o1 and o2
addMoverDrivers(o1, o, p)
addMoverDrivers(o2, o, p)
makeActiveSelected(context, o)
def execute(self, context):
obj = appendFromFile(context, self.filepath)
self.wall.insert(self.o, obj, Door)
makeActiveSelected(context, obj)
# Without bpy.ops.transform.translate() some complex stuff (some modifiers)
# may not be initialized correctly
bpy.ops.transform.translate()
return {"FINISHED"}
def execute(self, context):
obj = appendFromFile(context, self.filepath)
self.wall.insert(self.o, obj, Door)
makeActiveSelected(context, obj)
# Without bpy.ops.transform.translate() some complex stuff (some modifiers)
# may not be initialized correctly
bpy.ops.transform.translate()
return {'FINISHED'}
def execute(self, context):
obj = appendFromFile(context, self.filepath)
# mark parent object as a container
obj["container"] = 1
obj.location = getLevelLocation(context)
makeActiveSelected(context, obj)
# Without bpy.ops.transform.translate() some complex stuff (some modifiers)
# may not be initialized correctly
bpy.ops.transform.translate()
return {'FINISHED'}
def execute(self, context):
obj = appendFromFile(context, self.filepath)
# mark parent object as a container
obj["container"] = 1
obj.location = getLevelLocation(context)
makeActiveSelected(context, obj)
# Without bpy.ops.transform.translate() some complex stuff (some modifiers)
# may not be initialized correctly
bpy.ops.transform.translate()
return {'FINISHED'}
def execute(self, context):
if not context.scene.prk.workshopType in pContext.items:
return {'FINISHED'}
parent = context.object
# reset the cache of nodes
Template.nodeCache.reset()
# getting the parent template (i.e. it doesn't contain the custom attribute <p>)
for o in parent.children:
if not "p" in o:
self.makeParts(Template(o), context)
makeActiveSelected(context, parent)
break
return {'FINISHED'}
def execute(self, context):
if not context.scene.prk.workshopType in pContext.items:
return {'FINISHED'}
parent = context.object
# reset the cache of nodes
Template.nodeCache.reset()
# getting the parent template (i.e. it doesn't contain the custom attribute <p>)
for o in parent.children:
if not "p" in o:
self.makeParts(Template(o), context)
makeActiveSelected(context, parent)
break
return {'FINISHED'}
def execute(self, context):
# template Blender object
o = context.object
t = Template(o, skipInit=True)
prk = context.scene.prk
props = prk.item
if self.setBaseDirectory:
prk.baseDirectory = os.path.dirname(os.path.dirname(
self.directory))
# find the selected vertices
bm = t.bm
v = [v for v in bm.verts if v.select]
verts = (v[0].co, v[1].co)
# check if <verts> have the same <z>-coordinate (i.e. <verts> are located horizontally)
if abs(verts[1].z - verts[0].z) < zero2:
# verts[0] must be the leftmost vertex
if verts[0].x > verts[1].x:
verts = (verts[1], verts[0])
v = (v[1], v[0])
else:
# verts[0] must be the lower vertex
if verts[0].z > verts[1].z:
verts = (verts[1], verts[0])
v = (v[1], v[0])
# <a> is for asset
a = appendFromFile(context, self.filepath)
a.location = verts[0] + self.relativePosition * (verts[1] -
verts[0]) / 100.
parent_set(o, a)
a["t"] = "asset"
a["t2"] = props.window.assetType
# the path is set relative to <prk.baseDirectory>
a["path"] = self.filepath[len(prk.baseDirectory) + 1:]
# store <vids> for the tuple <v> of BMesh vertices as custom Blender object attributes
a["vid1"] = t.getVid(v[0])
a["vid2"] = t.getVid(v[1])
t.bm.free()
# side (left or right) for the asset
if props.assetSideLr != 'n':
# <slr> stands for <side left or right>
a["slr"] = props.assetSideLr
showWired(a)
makeActiveSelected(context, a)
# Without bpy.ops.transform.translate() some complex stuff (some modifiers)
# may not be initialized correctly
bpy.ops.transform.translate()
return {'FINISHED'}
def execute(self, context):
# template Blender object
o = context.object
t = Template(o, skipInit = True)
prk = context.scene.prk
props = prk.item
if self.setBaseDirectory:
prk.baseDirectory = os.path.dirname(os.path.dirname(self.directory))
# find the selected vertices
bm = t.bm
v = [v for v in bm.verts if v.select]
verts = (v[0].co, v[1].co)
# check if <verts> have the same <z>-coordinate (i.e. <verts> are located horizontally)
if abs(verts[1].z - verts[0].z) < zero2:
# verts[0] must be the leftmost vertex
if verts[0].x > verts[1].x:
verts = (verts[1], verts[0])
v = (v[1], v[0])
else:
# verts[0] must be the lower vertex
if verts[0].z > verts[1].z:
verts = (verts[1], verts[0])
v = (v[1], v[0])
# <a> is for asset
a = appendFromFile(context, self.filepath)
a.location = verts[0] + self.relativePosition*(verts[1]-verts[0])/100.
parent_set(o, a)
a["t"] = "asset"
a["t2"] = props.window.assetType
# the path is set relative to <prk.baseDirectory>
a["path"] = self.filepath[len(prk.baseDirectory)+1:]
# store <vids> for the tuple <v> of BMesh vertices as custom Blender object attributes
a["vid1"] = t.getVid(v[0])
a["vid2"] = t.getVid(v[1])
t.bm.free()
# side (left or right) for the asset
if props.assetSideLr != 'n':
# <slr> stands for <side left or right>
a["slr"] = props.assetSideLr
showWired(a)
makeActiveSelected(context, a)
# Without bpy.ops.transform.translate() some complex stuff (some modifiers)
# may not be initialized correctly
bpy.ops.transform.translate()
return {'FINISHED'}
def invoke(self, context, event):
o = context.object
bpy.ops.object.mode_set(mode='OBJECT')
childOffset = createEmptyObject("offset_" + o.name,
context.scene.cursor_location -
o.location,
False,
empty_draw_size=0.01)
childOffset["t"] = "offset"
childOffset.parent = o
# make <childOffset> the active object
o.select = False
makeActiveSelected(context, childOffset)
return {'FINISHED'}
def invoke(self, context, event):
o = context.object
bpy.ops.object.mode_set(mode='OBJECT')
childOffset = createEmptyObject(
"offset_" + o.name,
context.scene.cursor_location - o.location,
False,
empty_draw_size=0.01
)
childOffset["t"] = "offset"
childOffset.parent = o
# make <childOffset> the active object
o.select = False
makeActiveSelected(context, childOffset)
return {'FINISHED'}
def invoke(self, context, event):
o = context.object
bpy.ops.object.mode_set(mode='OBJECT')
assetType = context.scene.prk.item.window.assetType
# Blender EMPTY object as a placeholder for the offset
a = createEmptyObject(
o.name + "_" + assetType,
context.scene.cursor_location - o.location,
False,
empty_draw_size=0.01
)
a["t"] = "asset"
a["t2"] = assetType
a.parent = o
props = context.scene.prk.item
# side (internal or external) for the asset
if props.assetSideIe != 'n':
# <sie> stands for <side internal or external>
a["sie"] = props.assetSideIe
# check if there is a selected vertex and if it defines the node's open end
index = 0
for v in o.data.vertices:
if v.select:
# iterate through vertex groups of the vertex <v>
for g in v.groups:
name = o.vertex_groups[g.group].name
if name[:2] == "e_":
index = int(name[2:])
break
if index:
break
if index:
# remember the index of the node's open end
a["e"] = index
# make <a> the active object
o.select = False
makeActiveSelected(context, a)
return {'FINISHED'}
def setupMaster(self, context, point1, point2):
o = self.o
# create a master EMPTY resembling <o>
master = createEmptyObject("tmp", o.location, empty_draw_type=o.empty_draw_type, empty_draw_size=o.empty_draw_size)
master.lock_location[2] = True
self.master = master
# rotate master along the line defined by point1 and point2
master.rotation_euler[2] = math.atan2(point2.y-point1.y, point2.x-point1.x)
parent_set(o.parent, master)
o.select = False
# make <o> a slave of <master>
# x
x = o.driver_add("location", 0)
addTransformsVariable(x, "x", master, "LOC_X")
x.driver.expression = "x"
# y
y = o.driver_add("location", 1)
addTransformsVariable(y, "y", master, "LOC_Y")
y.driver.expression = "y"
makeActiveSelected(context, master)
def invoke(self, context, event):
o = context.object
bpy.ops.object.mode_set(mode='OBJECT')
assetType = context.scene.prk.item.window.assetType
# Blender EMPTY object as a placeholder for the offset
a = createEmptyObject(o.name + "_" + assetType,
context.scene.cursor_location - o.location,
False,
empty_draw_size=0.01)
a["t"] = "asset"
a["t2"] = assetType
a.parent = o
props = context.scene.prk.item
# side (internal or external) for the asset
if props.assetSideIe != 'n':
# <sie> stands for <side internal or external>
a["sie"] = props.assetSideIe
# check if there is a selected vertex and if it defines the node's open end
index = 0
for v in o.data.vertices:
if v.select:
# iterate through vertex groups of the vertex <v>
for g in v.groups:
name = o.vertex_groups[g.group].name
if name[:2] == "e_":
index = int(name[2:])
break
if index:
break
if index:
# remember the index of the node's open end
a["e"] = index
# make <a> the active object
o.select = False
makeActiveSelected(context, a)
return {'FINISHED'}
def execute(self, context):
o = context.scene.objects.active
area = None
wall = getWallFromEmpty(context, self, o)
if not wall:
self.report({"ERROR"}, "To begin an area, select an EMPTY object belonging to the wall")
return {'CANCELLED'}
o = getAreaInstance(context, self).make(o, wall)
if self.assignUv:
area = getItem(context, self, o)
area.assignUv()
if self.createWalls:
if not area:
area = getItem(context, self, o)
finish = FinFlat(context, self)
finish.createFromArea(area)
if self.assignUv:
finish.assignUv()
bpy.ops.object.select_all(action="DESELECT")
makeActiveSelected(context, o)
def area_finish(context, op):
o = getAreaInstance(context, op).finish()
bpy.ops.object.select_all(action="DESELECT")