def correct_bone_positions(bones):
for dest_name, end, root_name, root_end, axis in bones_to_correct_spine_position:
root_bone = bones.get(root_name)
root = Vector(getattr(root_bone, root_end))
dest = bones.get(dest_name)
dest_head = Vector(dest.head)
dest_tail = Vector(dest.tail)
if end == "head":
setattr(dest_head, axis, getattr(root, axis))
dest.head = dest_head
elif end == "tail":
print("set tail")
setattr(dest_tail, axis, getattr(root, axis))
dest.tail = dest_tail
# now do toes
leftToe = bones.get("LeftToeBase")
leftToeHead = Vector(leftToe.head)
leftToeTail = Vector(leftToe.tail)
leftToeTail.x = leftToeHead.x
leftToeTail.z = leftToeHead.z
leftToe.tail = leftToeTail
rightToe = bones.get("RightToeBase")
rightToeHead = Vector(rightToe.head)
rightToeTail = Vector(rightToe.tail)
rightToeTail.x = rightToeHead.x
rightToeTail.z = rightToeHead.z
rightToe.tail = rightToeTail
def getBoundingBox(scene):
minimum = Vector()
maximum = Vector()
for obj in scene.objects:
if obj.type == 'MESH':
bbox_corners = [obj.matrix_world * Vector(corner) for corner in obj.bound_box]
for v in bbox_corners:
if v.x < minimum.x:
minimum.x = v.x
if v.y < minimum.y:
minimum.y = v.y
if v.z < minimum.z:
minimum.z = v.z
if v.x > maximum.x:
maximum.x = v.x
if v.y > maximum.y:
maximum.y = v.y
if v.z > maximum.z:
maximum.z = v.z
return {
"minimum" : { "x" : minimum.x, "y" : minimum.y, "z" : minimum.z },
"maximum" : { "x" : maximum.x, "y" : maximum.y, "z" : maximum.z }
}
def combine_bounds(bounds: Iterable[BoundsDataStruct_YK1]) -> BoundsDataStruct_YK1:
# min_pos = None
# max_pos = None
min_pos = Vector((-1000, -1000, -1000))
max_pos = Vector((+1000, +1000, +1000))
for bound in bounds:
min_for_bound = bound.center - bound.box_extents
max_for_bound = bound.center - bound.box_extents
if min_pos is None:
min_pos = min_for_bound
max_pos = max_for_bound
else:
min_pos.x = min(min_for_bound.x, min_pos.x)
min_pos.y = min(min_for_bound.y, min_pos.y)
min_pos.z = min(min_for_bound.z, min_pos.z)
max_pos.x = max(max_for_bound.x, max_pos.x)
max_pos.y = max(max_for_bound.y, max_pos.y)
max_pos.z = max(max_for_bound.z, max_pos.z)
# TODO - This is for the sake of hierarchy objects which have no meshes themselves, but presumably have children with meshes.
# Will these BBOXes need to be calculated with those other ones in mind?
# Will these BBOXes need to be calculated with object position in mind?
# if min_pos is None:
# min_pos = Vector((0, 0, 0, 0))
# max_pos = Vector((0, 0, 0, 0))
return bounds_from_minmax(min_pos, max_pos)
def calcAlign(self, localArea):
alnVec = Vector([0, 0, 0])
if len(localArea) == 0:
return alnVec
agents = self.sim.agents
for neighbour in localArea:
alnVec.x += agents[neighbour].arx
alnVec.y += agents[neighbour].ary
alnVec.z += agents[neighbour].arz
alnVec /= len(localArea)
alnVec.x -= agents[self.userid].arx
alnVec.y -= agents[self.userid].ary
alnVec.z -= agents[self.userid].arz
alnVec.x %= 2 * math.pi
alnVec.y %= 2 * math.pi
alnVec.z %= 2 * math.pi
if alnVec.x < math.pi:
alnVec.x = alnVec.x / math.pi
else:
alnVec.x = -2 + alnVec.x / math.pi
if alnVec.y < math.pi:
alnVec.y = alnVec.y / math.pi
else:
alnVec.y = -2 + alnVec.y / math.pi
if alnVec.z < math.pi:
alnVec.z = alnVec.z / math.pi
else:
alnVec.z = -2 + alnVec.z / math.pi
return alnVec
def calcAlign(self, localArea):
alnVec = Vector([0, 0, 0])
if len(localArea) == 0:
return alnVec
agents = self.sim.agents
for neighbour in localArea:
alnVec.x += agents[neighbour].arx
alnVec.y += agents[neighbour].ary
alnVec.z += agents[neighbour].arz
alnVec /= len(localArea)
alnVec.x -= agents[self.userid].arx
alnVec.y -= agents[self.userid].ary
alnVec.z -= agents[self.userid].arz
alnVec.x %= 2*math.pi
alnVec.y %= 2*math.pi
alnVec.z %= 2*math.pi
if alnVec.x < math.pi:
alnVec.x = alnVec.x/math.pi
else:
alnVec.x = -2 + alnVec.x/math.pi
if alnVec.y < math.pi:
alnVec.y = alnVec.y/math.pi
else:
alnVec.y = -2 + alnVec.y/math.pi
if alnVec.z < math.pi:
alnVec.z = alnVec.z/math.pi
else:
alnVec.z = -2 + alnVec.z/math.pi
return alnVec
def getBoundsBF(obj):
""" brute force method for obtaining object bounding box """
# initialize min and max
min = Vector((math.inf, math.inf, math.inf))
max = Vector((-math.inf, -math.inf, -math.inf))
# calculate min and max verts
for v in obj.data.vertices:
if v.co.x > max.x:
max.x = v.co.x
elif v.co.x < min.x:
min.x = v.co.x
if v.co.y > max.y:
max.y = v.co.y
elif v.co.y < min.y:
min.y = v.co.y
if v.co.z > max.z:
max.z = v.co.z
elif v.co.z < min.z:
min.z = v.co.z
# set up bounding box list of coord lists
bound_box = [list(min),
[min.x, min.y, min.z],
[min.x, min.y, max.z],
[min.x, max.y, max.z],
[min.x, max.y, min.z],
[max.x, min.y, min.z],
[max.y, min.y, max.z],
list(max),
[max.x, max.y, min.z]]
return bound_box
def readPackedVector(f, format):
packed = f
output = Vector()
if format == 'XZY':
output.x = packed
output.y = packed / 65536.0
output.z = packed / 256.0
elif format == 'ZXY':
output.x = packed / 256.0
output.y = packed / 65536.0
output.z = packed
elif format == 'XYZ':
output.x = packed
output.y = packed / 256.0
output.z = packed / 65536.0
output.x -= math.floor(output.x)
output.y -= math.floor(output.y)
output.z -= math.floor(output.z)
output.x = output.x*2 - 1
output.y = output.y*2 - 1
output.z = output.z*2 - 1
return output
def getBoundsBF(obj:Object):
""" brute force method for obtaining object bounding box """
# initialize min and max
min = Vector((math.inf, math.inf, math.inf))
max = Vector((-math.inf, -math.inf, -math.inf))
# calculate min and max verts
for v in obj.data.vertices:
if v.co.x > max.x:
max.x = v.co.x
elif v.co.x < min.x:
min.x = v.co.x
if v.co.y > max.y:
max.y = v.co.y
elif v.co.y < min.y:
min.y = v.co.y
if v.co.z > max.z:
max.z = v.co.z
elif v.co.z < min.z:
min.z = v.co.z
# set up bounding box list of coord lists
bound_box = [list(min),
[min.x, min.y, min.z],
[min.x, min.y, max.z],
[min.x, max.y, max.z],
[min.x, max.y, min.z],
[max.x, min.y, min.z],
[max.y, min.y, max.z],
list(max),
[max.x, max.y, min.z]]
return bound_box
def analyzeMeshObject(obj, meshFaces):
global DEFAULT_PART_NAME
mesh = obj.data
parts = []
halfSize = obj.dimensions * 0.5
candidParts = []
centerOfMass = Vector((0.0, 0.0, 0.0))
trianglesCount = 0
meshVerticesCount = len(mesh.vertices)
meshMaterialCount = len(mesh.materials)
if meshMaterialCount > 0:
# Create parts. It is important to iterate it manually
# so material names order is preserved.
for i in range(meshMaterialCount):
candidParts.append({'name': mesh.materials[i].name, 'start': 0, 'count': 0})
else:
# If there are no materials defined, create default part placeholder.
candidParts.append({'name': DEFAULT_PART_NAME, 'start': 0, 'count': 0})
for f in meshFaces:
# Some faces can be quads - values have to doubled then.
modifier = 2 if len(f.vertices) == 4 else 1
candidParts[f.material_index]['count'] += 3 * modifier
trianglesCount += 1 * modifier
# Update part`s start attribute so they take other parts into account.
for i in range(0, len(candidParts)):
if i > 0:
candidParts[i]['start'] = candidParts[i - 1]['start'] + candidParts[i - 1]['count']
# Only export parts that have any triangles assigned.
for p in candidParts:
if p['count'] > 0:
parts.append(p)
centerMax = Vector((-9999.999, -9999.999, -9999.999))
centerMin = Vector(( 9999.999, 9999.999, 9999.999))
for v in mesh.vertices:
centerMax.x = max(centerMax.x, v.co.x)
centerMin.x = min(centerMin.x, v.co.x)
centerMax.y = max(centerMax.y, v.co.y)
centerMin.y = min(centerMin.y, v.co.y)
centerMax.z = max(centerMax.z, v.co.z)
centerMin.z = min(centerMin.z, v.co.z)
centerOfMass.x = abs(centerMax.x) - abs(centerMin.x)
centerOfMass.y = abs(centerMax.y) - abs(centerMin.y)
centerOfMass.z = abs(centerMax.z) - abs(centerMin.z)
centerOfMass *= 0.5
return centerOfMass, halfSize, trianglesCount, parts
def calcBBPos(x, y, z, a1, a2, a3, type='DNA'):
bb = Vector()
if type is 'DNA':
bb.x = x - (0.34 * a1.x + 0.3408 * a2.x)
bb.y = y - (0.34 * a1.y + 0.3408 * a2.y)
bb.z = z - (0.34 * a1.z + 0.3408 * a2.z)
elif type is 'RNA':
bb.x = x - (0.4 * a1.x + 0.2 * a3.x)
bb.y = y - (0.4 * a1.y + 0.2 * a3.y)
bb.z = z - (0.4 * a1.z + 0.2 * a3.z)
return bb
def bounding_box(mesh):
v0 = mesh.vertices[0].co
vmin = Vector((v0.x, v0.y, v0.z))
vmax = Vector((v0.x, v0.y, v0.z))
for i in range(1, len(mesh.vertices)):
v = mesh.vertices[i].co
vmin.x = min(vmin.x, v.x)
vmin.y = min(vmin.y, v.y)
vmin.z = min(vmin.z, v.z)
vmax.x = max(vmax.x, v.x)
vmax.y = max(vmax.y, v.y)
vmax.z = max(vmax.z, v.z)
return vmin, vmax
def bounding_box(mesh):
v0 = mesh.vertices[0].co
vmin = Vector((v0.x, v0.y, v0.z))
vmax = Vector((v0.x, v0.y, v0.z))
for i in range(1, len(mesh.vertices)):
v = mesh.vertices[i].co
vmin.x = min(vmin.x, v.x)
vmin.y = min(vmin.y, v.y)
vmin.z = min(vmin.z, v.z)
vmax.x = max(vmax.x, v.x)
vmax.y = max(vmax.y, v.y)
vmax.z = max(vmax.z, v.z)
return vmin, vmax
def execute(self, context):
switchMode = False
if context.mode != 'OBJECT':
switchMode = True
bpy.ops.object.mode_set(mode='OBJECT', toggle=True)
for o in context.selected_objects:
if o.type == "MESH":
d = o.data
m = o.matrix_world
if self.center:
bounds_center = (sum(
(m @ Vector(b) for b in o.bound_box), Vector())) / 8
difference = m.translation - bounds_center
local_difference = difference @ m
for v in d.vertices:
v.co += local_difference
m.translation -= difference
difference = Vector((0, 0, 0))
if self.side == 'X':
bound = max((m @ v.co).x for v in d.vertices)
difference.x = m.translation.x - bound
elif self.side == '-X':
bound = min((m @ v.co).x for v in d.vertices)
difference.x = m.translation.x - bound
elif self.side == 'Y':
bound = max((m @ v.co).y for v in d.vertices)
difference.y = m.translation.y - bound
elif self.side == '-Y':
bound = min((m @ v.co).y for v in d.vertices)
difference.y = m.translation.y - bound
elif self.side == 'Z':
bound = max((m @ v.co).z for v in d.vertices)
difference.z = m.translation.z - bound
elif self.side == '-Z':
bound = min((m @ v.co).z for v in d.vertices)
difference.z = m.translation.z - bound
local_difference = difference @ m
for v in d.vertices:
v.co += local_difference
m.translation -= difference
if self.move:
o.location = context.scene.cursor.location
if switchMode:
bpy.ops.object.mode_set(mode='OBJECT', toggle=True)
return {'FINISHED'}
def calc_box(self):
if not self.verts:
return Vector((0, 0, 0)), Vector((0, 0, 0))
mins = Vector(self.verts[0])
maxs = Vector(self.verts[0])
for v in self.verts:
mins.x = min(mins.x, v.x)
mins.y = min(mins.y, v.y)
mins.z = min(mins.z, v.z)
maxs.x = max(maxs.x, v.x)
maxs.y = max(maxs.y, v.y)
maxs.z = max(maxs.z, v.z)
size = (maxs - mins)
center = (maxs + mins) / 2
return size, center
def find_HalfExtent_scale(loc):
scale = Vector()
values = loc.find("*[@Name='HalfExtents']").attrib
scale.x = float(values['X'])
scale.y = float(values['Z'])
scale.z = float(values['Y'])
return scale
def modal(self, context, event):
props = context.scene.tom_props
prefs = context.user_preferences.addons[__name__].preferences
# 3Dビューの画面を更新
if context.area:
context.area.tag_redraw()
# キーボードのQキーが押された場合は、オブジェクト並進移動モードを終了
if event.type == 'Q' and event.value == 'PRESS':
props.running = False
print("サンプル3-10: 通常モードへ移行しました。")
return {'FINISHED'}
if event.value == 'PRESS':
value = Vector((0.0, 0.0, 0.0))
if event.type == prefs.x_axis:
value.x = 1.0 if not event.shift else -1.0
if event.type == prefs.y_axis:
value.y = 1.0 if not event.shift else -1.0
if event.type == prefs.z_axis:
value.z = 1.0 if not event.shift else -1.0
# 選択中のオブジェクトを並進移動する
bpy.ops.transform.translate(value=value)
return {'RUNNING_MODAL'}
def sRGB2linear(rgb):
a = 0.055
lrgb = Vector()
lrgb.x = s2lin(rgb.x)
lrgb.y = s2lin(rgb.y)
lrgb.z = s2lin(rgb.z)
return lrgb
def modal(self, context, event):
props = context.scene.tom_props
# @include-source start [get_prefs]
prefs = context.user_preferences.addons[__name__].preferences
# @include-source end [get_prefs]
# 3Dビューの画面を更新
if context.area:
context.area.tag_redraw()
# キーボードのQキーが押された場合は、オブジェクト並進移動モードを終了
if event.type == 'Q' and event.value == 'PRESS':
props.running = False
print("サンプル3-10: 通常モードへ移行しました。")
return {'FINISHED'}
# @include-source start [refer_prefs]
if event.value == 'PRESS':
value = Vector((0.0, 0.0, 0.0))
if event.type == prefs.x_axis:
value.x = 1.0 if not event.shift else -1.0
if event.type == prefs.y_axis:
value.y = 1.0 if not event.shift else -1.0
if event.type == prefs.z_axis:
value.z = 1.0 if not event.shift else -1.0
# 選択中のオブジェクトを並進移動する
bpy.ops.transform.translate(value=value)
# @include-source end [refer_prefs]
return {'RUNNING_MODAL'}
def update(self, ctx, clickcount, dimantion): dim = dimantion if self.shift: index = -1 if len(self.subclass.knots) < 2 else -2 lastpoint = self.subclass.knots[index].pos dim.view = get_axis_constraint(lastpoint, dim.view) if self.drag: pos = self.subclass.knots[-1].pos outvec = dim.view invec = Vector((0,0,0)) invec.x = pos.x - (outvec.x - pos.x) invec.y = pos.y - (outvec.y - pos.y) invec.z = pos.z - (outvec.z - pos.z) newknot = knot(pos, invec, outvec, 'ALIGNED') else: newknot = knot(dim.view, dim.view, dim.view, "VECTOR") if clickcount != self.lastclick: self.subclass.knots.append(newknot) self.lastclick = clickcount check_for_close(self, ctx) if LineData.close: self.subclass.knots.pop() self.subclass.close = True self.forcefinish = True self.subclass.knots[-1] = newknot self.subclass.lastknot = [knot(dim.view, dim.view, dim.view, "VECTOR")] self.subclass.update(ctx)
def render(self):
diameter = 4.0
sz = 2.125 / diameter
base_object = helpers.infer_primitive(random.choice(self.PRIMITIVES),
location=(100, 100, 100),
radius=sz)
latitude = 16
longitude = latitude * 2
invlatitude = 1.0 / (latitude - 1)
invlongitude = 1.0 / (longitude - 1)
iprc = 0.0
jprc = 0.0
phi = 0.0
theta = 0.0
invfcount = 1.0 / (self.NUMBER_OF_FRAMES - 1)
# Animate center of the sphere.
center = Vector((0.0, 0.0, 0.0))
startcenter = Vector((0.0, -4.0, 0.0))
stopcenter = Vector((0.0, 4.0, 0.0))
# Rotate cubes around the surface of the sphere.
pt = Vector((0.0, 0.0, 0.0))
rotpt = Vector((0.0, 0.0, 0.0))
# Change the axis of rotation for the point.
baseaxis = Vector((0.0, 1.0, 0.0))
axis = Vector((0.0, 0.0, 0.0))
# Slerp between two rotations for each cube.
startrot = Quaternion((0.0, 1.0, 0.0), pi)
stoprot = Quaternion((1.0, 0.0, 0.0), pi * 1.5)
currot = Quaternion()
for i in range(0, latitude, 1):
iprc = i * invlatitude
phi = pi * (i + 1) * invlatitude
rad = 0.01 + sz * abs(sin(phi)) * 0.99
pt.z = cos(phi) * diameter
for j in range(0, longitude, 1):
jprc = j * invlongitude
theta = TWOPI * j / longitude
pt.y = center.y + sin(phi) * sin(theta) * diameter
pt.x = center.x + sin(phi) * cos(theta) * diameter
current = helpers.duplicate_object(base_object)
current.location = pt
current.name = 'Object ({0:0>2d}, {1:0>2d})'.format(i, j)
current.data.name = 'Mesh ({0:0>2d}, {1:0>2d})'.format(i, j)
current.rotation_euler = (0.0, phi, theta)
helpers.assign_material(
current, helpers.random_material(self.MATERIALS_NAMES))
axis = self.vecrotatex(theta, baseaxis)
currot = startrot
center = startcenter
for f in range(0, self.NUMBER_OF_FRAMES, 1):
fprc = f / (self.NUMBER_OF_FRAMES - 1)
osc = abs(sin(TWOPI * fprc))
bpy.context.scene.frame_set(f)
center = startcenter.lerp(stopcenter, osc)
current.location = helpers.rotate_vector(
TWOPI * fprc, axis, pt)
current.keyframe_insert(data_path='location')
currot = startrot.slerp(stoprot, jprc * fprc)
current.rotation_euler = currot.to_euler()
current.keyframe_insert(data_path='rotation_euler')
def calculate_bbox(verts, matrix=None):
mapped_verts = verts
if matrix is not None:
mapped_verts = map(lambda v, M=matrix: M @ v, verts)
bbox_min = Vector(next(mapped_verts))
bbox_max = bbox_min.copy()
for v in mapped_verts:
if v.x < bbox_min.x:
bbox_min.x = v.x
if v.y < bbox_min.y:
bbox_min.y = v.y
if v.z < bbox_min.z:
bbox_min.z = v.z
if v.x > bbox_max.x:
bbox_max.x = v.x
if v.y > bbox_max.y:
bbox_max.y = v.y
if v.z > bbox_max.z:
bbox_max.z = v.z
# Return bounding box verts
return bbox_min, bbox_max
def item_to_vector(item):
"""Converts XML item object to vector. SWAPS Y and Z"""
v = Vector()
v.x = float(item.attrib['X'])
v.y = float(item.attrib['Z'])
v.z = float(item.attrib['Y'])
return v
def read_vector4(io_stream):
vec = Vector((0, 0, 0, 0))
vec.x = read_float(io_stream)
vec.y = read_float(io_stream)
vec.z = read_float(io_stream)
vec.w = read_float(io_stream)
return vec
def getRandomLoc(randomLoc, rand, width, height):
""" get random location between (0,0,0) and (width/2, width/2, height/2) """
loc = Vector((0, 0, 0))
loc.xy = [rand.uniform(-(width / 2) * randomLoc,
(width / 2) * randomLoc)] * 2
loc.z = rand.uniform(-(height / 2) * randomLoc, (height / 2) * randomLoc)
return loc
def modal(self, context, event):
props = context.scene.tom_props
# 3Dビューの画面を更新
if context.area:
context.area.tag_redraw()
# キーボードのQキーが押された場合は、オブジェクト並進移動モードを終了
if event.type == 'Q' and event.value == 'PRESS':
props.running = False
print("サンプル3-2: 通常モードへ移行しました。")
return {'FINISHED'}
if event.value == 'PRESS':
value = Vector((0.0, 0.0, 0.0))
if event.type == 'X':
value.x = 1.0 if not event.shift else -1.0
if event.type == 'Y':
value.y = 1.0 if not event.shift else -1.0
if event.type == 'Z':
value.z = 1.0 if not event.shift else -1.0
# 選択中のオブジェクトを並進移動する
bpy.ops.transform.translate(value=value)
return {'RUNNING_MODAL'}
def find_xyz(loc, valname):
"""returns vector named valname in loc"""
v = Vector()
values = loc.find(f"*[@Name='{valname}']").attrib
v.x = float(values['X'])
v.y = float(values['Z'])
v.z = float(values['Y'])
return v
def find_xyz_from_mat(loc, mat_name):
"""returns xyz from matrix named mat_name in loc"""
a = Vector()
values = loc.find(f"*[@Name='{mat_name}']").attrib
a.x = float(values['M41'])
a.y = float(values['M43'])
a.z = float(values['M42'])
return a
def fencehop(): cont = bge.logic.getCurrentController() own = cont.owner auto_action = cont.sensors['auto_action'] if not auto_action: return False elif own['isSpaceon']: #Gather info on the fence fence_obj = auto_action.hitObject fence_pos = fence_obj.worldPosition #get the normal of the fence hit_norm = Vector(auto_action.hitNormal) hit_norm.z = 0.0 #Vector axis of Sintel own_negative_y = Vector(own.getAxisVect((0.0, -1.0, 0.0))) own_negative_y.z = 0.0 #Cross it, then get the absolute vaule cross = hit_norm.cross(own_negative_y) cross = math.fabs(cross[2]) #print (cross) #Check the angle of approach if cross <=.5: new_pos = (fence_pos[2] + 2) own.worldPosition[2] = new_pos own['Leaping']=True CURRENT_SPEED = own.getLinearVelocity(True) if CURRENT_SPEED[1] < 11: CURRENT_SPEED[1] = 11 CURRENT_SPEED[2] = 10 #print (CURRENT_SPEED) own.setLinearVelocity(CURRENT_SPEED ,True) own['Tracking']=False return True else: return False
def get_min_max(vertList):
min = Vector(vertList[0])
max = Vector(vertList[0])
for v in vertList:
if v.x < min.x:
min.x = v.x
elif v.x > max.x:
max.x = v.x
if v.y < min.y:
min.y = v.y
elif v.y > max.y:
max.y = v.y
if v.z < min.z:
min.z = v.z
elif v.z > max.z:
max.z = v.z
return min, max
def fencehop():
cont = bge.logic.getCurrentController()
own = cont.owner
auto_action = cont.sensors['auto_action']
if not auto_action:
return False
elif own['isSpaceon']:
#Gather info on the fence
fence_obj = auto_action.hitObject
fence_pos = fence_obj.worldPosition
#get the normal of the fence
hit_norm = Vector(auto_action.hitNormal)
hit_norm.z = 0.0
#Vector axis of Sintel
own_negative_y = Vector(own.getAxisVect((0.0, -1.0, 0.0)))
own_negative_y.z = 0.0
#Cross it, then get the absolute vaule
cross = hit_norm.cross(own_negative_y)
cross = math.fabs(cross[2])
#print (cross)
#Check the angle of approach
if cross <= .5:
new_pos = (fence_pos[2] + 2)
own.worldPosition[2] = new_pos
own['Leaping'] = True
CURRENT_SPEED = own.getLinearVelocity(True)
if CURRENT_SPEED[1] < 11:
CURRENT_SPEED[1] = 11
CURRENT_SPEED[2] = 10
#print (CURRENT_SPEED)
own.setLinearVelocity(CURRENT_SPEED, True)
own['Tracking'] = False
return True
else:
return False
def onKeyPressed(self, keys):
rot = self.obj.worldOrientation.to_euler()
pos = Vector([0, 0, 0])
if key.W in keys: rot.x += 0.01
if key.S in keys: rot.x -= 0.01
if key.A in keys: rot.z += 0.01
if key.D in keys: rot.z -= 0.01
if key.WHEELUPMOUSE in keys: pos.z = -self.obj.worldPosition.z * 0.3
if key.WHEELDOWNMOUSE in keys: pos.z = self.obj.worldPosition.z * 0.3
#Max speed is dependent of the Tile sizes, ex (200m/s = size) / 50fps = 4m/tick
#Since we are using an extra radius we can guarante a speed of 8m/tick without glitches: 8*60fps = 480m/s = 1728 km/h
#if pos.length > 8: pos.length = 8
#But we don't care for now
if pos.length > 50: pos.length = 50
pos.rotate(self.obj.worldOrientation)
self.obj.worldPosition += pos
self.obj.worldOrientation = rot
def onKeyPressed(self, keys): rot = self.obj.worldOrientation.to_euler() pos = Vector([0,0,0]) if key.W in keys: rot.x += 0.01 if key.S in keys: rot.x -= 0.01 if key.A in keys: rot.z += 0.01 if key.D in keys: rot.z -= 0.01 if key.WHEELUPMOUSE in keys: pos.z = -self.obj.worldPosition.z * 0.3 if key.WHEELDOWNMOUSE in keys: pos.z = self.obj.worldPosition.z * 0.3 #Max speed is dependent of the Tile sizes, ex (200m/s = size) / 50fps = 4m/tick #Since we are using an extra radius we can guarante a speed of 8m/tick without glitches: 8*60fps = 480m/s = 1728 km/h #if pos.length > 8: pos.length = 8 #But we don't care for now if pos.length > 50: pos.length = 50 pos.rotate(self.obj.worldOrientation) self.obj.worldPosition += pos self.obj.worldOrientation = rot
def get_max(ob):
mx = Vector((-1000., -1000., -1000.))
for vx in ob.data.vertices:
p = ob.matrix_world * vx.co
mx.x = max(mx.x, p.x)
mx.y = max(mx.y, p.y)
mx.z = max(mx.z, p.z)
return mx
def processCamera(cont):
own = cont.owner
axis = own.childrenRecursive["CameraAxis"]
own.scene.active_camera.timeOffset = CAMERA_SMOOTH
posVector = Vector((0, 0, 0))
if own["Landing"]:
posVector.y = VIEW_HEIGHT_DISTANCE * 3
posVector.z = VIEW_HEIGHT_DISTANCE
else:
posVector.z = -VIEW_HEIGHT_DISTANCE
if own["DirectionH"] == "Left":
posVector.x = -VIEW_AHEAD_DISTANCE
elif own["DirectionH"] == "Right":
posVector.x = VIEW_AHEAD_DISTANCE
axis.worldPosition = own.worldPosition + posVector
def get_all_max_min():
min_p = Vector([float('inf'), float('inf'), float('inf')])
max_p = Vector([-float('inf'), -float('inf'), -float('inf')])
for obj in bpy.data.objects:
if obj.type != 'MESH':
continue
max_min = get_object_max_min(obj)
# Max
max_p.x = max(max_p.x, max_min['max'].x)
max_p.y = max(max_p.y, max_min['max'].y)
max_p.z = max(max_p.z, max_min['max'].z)
# Min
min_p.x = min(min_p.x, max_min['min'].x)
min_p.y = min(min_p.y, max_min['min'].y)
min_p.z = min(min_p.z, max_min['min'].z)
return {
'min': min_p,
'max': max_p
}
def get_random_loc(random_loc, rand, half_width, half_height):
""" get random location between (0,0,0) and (width/2, width/2, height/2) """
loc = Vector((0, 0, 0))
if random_loc > 0:
loc.xy = [
rand.uniform(-half_width * random_loc, half_width * random_loc)
] * 2
loc.z = rand.uniform(-half_height * random_loc,
half_height * random_loc)
return loc
def __neg__(self):
""" return antipodal point """
coo=Vector()
if self.co.x > 0:
coo.x = self.co.x - math.pi
else:
coo.x = self.co.x + math.pi
coo.y = abs(math.pi - self.co.y)
coo.z = -self.co.z
return Reflection(co=coo,
normalize=False)
def roi2point(self, msg):
"""
Returns a normalized point at the center of the given RegionOfInterest
message.
"""
p = Vector([0,0,0])
if self.camerainfo.width > 0:
p.x = 0.5 - (msg.x_offset+(msg.width/2.0))/self.camerainfo.width
if self.camerainfo.height > 0:
p.z = 0.5 - (msg.y_offset+(msg.height/2.0))/self.camerainfo.height
return p
def read_vector_axis_vecteur(node):
v = Vector((0.0, 0.0, 0.0))
childs = node.getElementsByTagName('x')
if childs:
v.x = ret_float_value(childs[0])
childs = node.getElementsByTagName('y')
if childs:
v.y = ret_float_value(childs[0])
childs = node.getElementsByTagName('z')
if childs:
v.z = ret_float_value(childs[0])
return v
def execute(self, context):
scene = context.scene
obj = context.active_object
# check if active object is a mesh object
if not obj or obj.type != 'MESH':
self.report({'ERROR'}, "No selected mesh object!")
return {'CANCELLED'}
# check if it has one single face
if len(obj.data.polygons) != 1:
self.report(
{'ERROR'},
"The selected mesh object has to have exactly one quad!")
return {'CANCELLED'}
rl = scene.lightfield.row_length
# use a degree angle here
angle = degrees(scene.lightfield.angle)
spacing = scene.lightfield.spacing
# resolution of final renderings
res = round(scene.render.resolution_x *
(scene.render.resolution_percentage / 100.))
width = self.getWidth(obj)
# the offset between n pixels on the focal plane
fplane_offset = (width / res) * spacing
# vertices for the basemesh
verts = []
# the offset vector
vec = self.getCamVec(obj, angle)
# lower left coordinates of the grid
sx = obj.location[0] - fplane_offset * int(rl / 2)
sy = obj.location[1] - fplane_offset * int(rl / 2)
z = obj.location[2]
# position on the focal plane
fplane_pos = Vector()
for x in [sx + fplane_offset * i for i in range(rl)]:
for y in [sy + fplane_offset * i for i in range(rl)]:
fplane_pos.x = x
fplane_pos.y = y
fplane_pos.z = z
# position of a vertex in a basemesh
pos = fplane_pos + vec
# pack coordinates flat into the vert list
verts.append((pos.x, pos.y, pos.z))
# setup the basemesh and add verts
mesh = bpy.data.meshes.new(self.objName)
mesh.from_pydata(verts, [], [])
self.addMeshObj(mesh)
return {'FINISHED'}
def main(): cont = bge.logic.getCurrentController() own = cont.owner wall_ray = cont.sensors["wall_ray"] wall_normal = Vector(wall_ray.hitNormal) wall_normal.z = 0.0 own_negative_y = Vector(own.getAxisVect((0.0, -1.0, 0.0))) own_negative_y.z = 0.0 cross = wall_normal.cross(own_negative_y) if cross.z > 0.0: new_dir = Matrix.Rotation(-90.0, 3, 'X') * wall_normal else: new_dir = Matrix.Rotation(90.0, 3, 'X') * wall_normal #print (new_dir) #own.alignAxisToVect(new_dir, 0, .1)
def _move(self, direction, value):
""" Moves view into direction by value. """
for view in self.get3DView():
offset = Vector((0.0, 0.0, 0.0))
if direction == "horizontal":
offset.x = value
elif direction == "vertical":
offset.y = value
elif direction == "straightforward":
offset.z = value
view.view_location = view.view_rotation*offset + view.view_location
def getDimensions(self):
highest = Vector((-10000, -10000, -10000))
lowest = Vector(( 10000, 10000, 10000))
for bone in self.bones:
if highest.x < bone.restHead.x: highest.x = bone.restHead.x
if highest.y < bone.restHead.y: highest.y = bone.restHead.y
if highest.z < bone.restHead.z: highest.z = bone.restHead.z
if highest.x < bone.restTail.x: highest.x = bone.restTail.x
if highest.y < bone.restTail.y: highest.y = bone.restTail.y
if highest.z < bone.restTail.z: highest.z = bone.restTail.z
if lowest .x > bone.restHead.x: lowest .x = bone.restHead.x
if lowest .y > bone.restHead.y: lowest .y = bone.restHead.y
if lowest .z > bone.restHead.z: lowest .z = bone.restHead.z
if lowest .x > bone.restTail.x: lowest .x = bone.restTail.x
if lowest .y > bone.restTail.y: lowest .y = bone.restTail.y
if lowest .z > bone.restTail.z: lowest .z = bone.restTail.z
return Vector((highest.x - lowest.x, highest.y - lowest.y, highest.z - lowest.z))
def execute(self, context):
scene = context.scene
obj = context.active_object
# check if active object is a mesh object
if not obj or obj.type != 'MESH':
self.report({'ERROR'}, "No selected mesh object!")
return {'CANCELLED'}
# check if it has one single face
if len(obj.data.polygons) != 1:
self.report({'ERROR'}, "The selected mesh object has to have exactly one quad!")
return {'CANCELLED'}
rl = scene.lightfield.row_length
# use a degree angle here
angle = degrees(scene.lightfield.angle)
spacing = scene.lightfield.spacing
# resolution of final renderings
res = round(scene.render.resolution_x * (scene.render.resolution_percentage / 100.))
width = self.getWidth(obj)
# the offset between n pixels on the focal plane
fplane_offset = (width / res) * spacing
# vertices for the basemesh
verts = []
# the offset vector
vec = self.getCamVec(obj, angle)
# lower left coordinates of the grid
sx = obj.location[0] - fplane_offset * int(rl / 2)
sy = obj.location[1] - fplane_offset * int(rl / 2)
z = obj.location[2]
# position on the focal plane
fplane_pos = Vector()
for x in [sx + fplane_offset * i for i in range(rl)]:
for y in [sy + fplane_offset * i for i in range(rl)]:
fplane_pos.x = x
fplane_pos.y = y
fplane_pos.z = z
# position of a vertex in a basemesh
pos = fplane_pos + vec
# pack coordinates flat into the vert list
verts.append((pos.x, pos.y, pos.z))
# setup the basemesh and add verts
mesh = bpy.data.meshes.new(self.objName)
mesh.from_pydata(verts, [], [])
self.addMeshObj(mesh)
return {'FINISHED'}
def Translate(mesh, vtx_weight_dict, shapekey_out, dx, dy, dz):
# Purpose: translate vertices in the weight dict somewhere
verts = shapekey_out.data
vwd = vtx_weight_dict
d = Vector((0,0,0))
for i in range(len(verts)):
if i in vwd:
d.x = dx
d.y = dy
d.z = dz
verts[i].co += vwd[i] * d
else:
continue
def calcBranch(self, branch, angle=0):
rotation = uniform(0, pi * 2)
br = copy(branch)
a = br.a
o = Vector([uniform(-1,1),uniform(-1,1),uniform(-1,1)])
if a.x != 0:
o.x = -(a.y * o.y + a.z * o.z) / a.x
elif a.y != 0:
o.y = -(a.x * o.x + a.z * o.z) / a.y
elif a.z != 0:
o.z = -(a.x * o.x + a.y * o.y) / a.z
else:
raise Exception("Invalid input: zero vector")
o = norm(o)
assert(inner_product(o) > .9999 or inner_product(o) < 1.0001)
assert(o * a < 0.0001)
br.a = rotation_mat(branch.a, rotation) * (rotation_mat(o, angle) * br.a)
br.a = norm(vec_vec_mult(br.a, self.gradual_angle))
return br
def resize_primary_brush(self, radius):
context = bpy.context
primary_brush = self.primary_brush
region_height = context.region.height
region_width = context.region.width
# Determine the world space radius of the primary brush necessary to
# project a circle onto the view plane with the specified region space
# radius.
# Determine the z-depth of the primary brush's center in normalized
# device coordinates.
projection_matrix = context.region_data.perspective_matrix
co = primary_brush.center.copy()
co.resize(4)
co.w = 1
co.xyzw = projection_matrix * co
w = co.w
co.xyz /= w
NDC_z_depth = co.z
# Determine the region space coordinates of the primary brush's center.
region_x = (co.x + 1) * region_width / 2
region_y = (co.y + 1) * region_height / 2
# Determine the NDC coordinates of a point on the edge of the
# circle that should result from projecting the brush onto the view
# plane.
co = Vector((region_x, region_y)) + Vector((radius, 0))
co.x = co.x * 2 / region_width - 1
co.y = co.y * 2 / region_height - 1
co.resize(3)
co.z = NDC_z_depth
# Calculate the world space radius of the primary brush.
co.resize(4)
co.w = 1
co.xyzw = projection_matrix.inverted() * co
w = co.w
co.resize(3)
co.xyz /= w
primary_brush.radius = (co - primary_brush.center).length
def apply_location(self, user):
for joint in user.joints.values():
for obj in bpy.data.objects:
if obj.type != "ARMATURE":
continue
armature = obj
if not armature.pose:
continue
pose = armature.pose
if not pose.bones:
continue
bones = pose.bones
if joint.name not in bones:
continue
bone = bones[joint.name]
if not bone:
continue
location = Vector()
location.x = joint.location.x
location.y = joint.location.y
location.z = joint.location.z
parent = bone
while not hasattr(parent, "parent"):
parent = parent.parent
if not parent:
continue
if not hasattr(parent, "location"):
continue
location.x -= parent.location.x
location.y -= parent.location.y
location.z -= parent.location.z
bone.location = location
if bpy.amk2b.recording_started:
bone.keyframe_insert(data_path="location", frame=bpy.context.scene.frame_current)
def _frames_difference_vector(self, frames, attr_func):
""" Calculates the difference Vector of attribute on the first and the last frame. """
res = Vector((0.0, 0.0, 0.0))
for i in (0, -1):
#get attributes from frames[i]
v = attr_func(frames[i])
if i == 0:
res.y -= v.y
res.x -= v.x
res.z -= v.z
else:
res.y += v.y
res.x += v.x
res.z += v.z
if res.x > settings.max_x and res.x < -settings.max_x:
res.y = 0
if res.y > settings.max_y and res.y < -settings.max_y:
res.y = 0
if res.z > settings.max_z and res.z < -settings.max_z:
res.z = 0
return res
def execute(self, context):
scene = context.scene
sp = scene.speaker
scene_objects_set = set(scene.objects)
obj = context.active_object
# copy cursor location
cursor_loc = scene.cursor_location.copy()
# snap the cursor to the selected
bpy.ops.view3d.snap_cursor_to_selected()
channels = self.rows * self.cols
# bpy.context for testing. Use context from Op, Panel method.
originals = context.selected_objects.copy()
# has the selected objects in it.
c = {}
c["scene"] = scene
c["screen"] = context.screen
c["area"] = context.area
c["region"] = context.region
c["active_object"] = None
c["edit_object"] = None
c["window"] = context.window
# c["selected_bases"] = context.selected_bases.copy()
# c["selected_editable_objects"] = context.selected_editable_objects.copy()
# c["selected_bases"] = []
c["selected_objects"] = originals
dimensions = bbdim(selected_bbox(context))
# Location of original unit
location = scene.cursor_location.copy()
st_handle = bpy.data.objects.new("ST_handle", None)
st_handle["channels"] = channels
scene.objects.link(st_handle)
st_handle.matrix_world.translation = location
st_handle["ST_Vis"] = 0
handles = []
new_objects = set(originals)
vis = []
# make duplicates
for i in range(channels):
scene.update()
handle = bpy.data.objects.new("ch[%04d]" % i, None)
scene.objects.link(handle)
handle["ST_Vis"] = i # the channel to drive with.
handle.parent = st_handle
handles.append(handle)
# make the handle the objects parent if no parent else
if i:
scene_objects_set = set(scene.objects)
bpy.ops.object.duplicate(c, 'INVOKE_DEFAULT', linked=False)
scene.update()
new_objects = set(scene.objects) - scene_objects_set
vis.append((i, handle, new_objects))
for i, handle, new_objects in vis:
for o in new_objects:
print(o, o.parent)
if not o.parent or o.parent in handles:
o.parent = handle
if not i or not o.animation_data:
continue # drivers ok for ch0
# get the drivers of o
# have speaker as a var target
# have CH0 as a variable
drivers = o.animation_data.drivers
drivers = [d for d in drivers for v in d.driver.variables for t in v.targets if t.id == sp]
for d in drivers:
all_channels, args = get_driver_settings(d)
driver = d.driver
expr = driver.expression
for ch in all_channels:
if len(ch) == 3 and ch.endswith("0"):
all_channels.remove(ch)
newch = ch.replace("0", str(i))
expr = expr.replace(ch, newch)
all_channels.append(newch)
var = driver.variables.get(ch)
var.name = newch
var.targets[0].data_path = var.targets[0].data_path.replace(ch, newch)
driver.expression = driver_expr(expr,
all_channels,
args)
# distribute
# Properties
rows = self.rows
cols = self.cols
offset = Vector(self.offset)
offset.x = dimensions.x * offset.x
offset.y = dimensions.y * offset.y
offset.z = dimensions.z * offset.z
# deselect all
bpy.ops.object.select_all(action='DESELECT')
self.handle = st_handle is not None
self.handle_name = st_handle.name
context.scene.objects.active = st_handle
st_handle.select = True
st_handle["VIS"] = 'GRID'
# make an rna and make a grid
vis_RNA = {
"name": self.handle_name,
"rows": self.rows,
"cols": self.cols,
"channels": channels,
"offset": {
"x": self.offset[0],
"y": self.offset[1],
"z": self.offset[2]
},
"dimensions": {
"x": dimensions[0],
"y": dimensions[1],
"z": dimensions[2],
}
}
st_handle['_RNA_UI'] = {}
st_handle['_RNA_UI']["VIS"] = vis_RNA
# make a new edit item in the grids collection
grid = context.scene.visualisers.grids.add()
grid.name = st_handle.name
grid.rows = self.rows
grid.cols = self.cols
grid.offset = self.offset
return {'FINISHED'}
# キーボードのQキーが押された場合は、オブジェクト並進移動モードを終了
if event.type == 'Q' and event.value == 'PRESS':
props.running = False
print("サンプル3-10: 通常モードへ移行しました。")
return {'FINISHED'}
//! [refer_prefs]
if event.value == 'PRESS':
value = Vector((0.0, 0.0, 0.0))
if event.type == prefs.x_axis:
value.x = 1.0 if not event.shift else -1.0
if event.type == prefs.y_axis:
value.y = 1.0 if not event.shift else -1.0
if event.type == prefs.z_axis:
value.z = 1.0 if not event.shift else -1.0
# 選択中のオブジェクトを並進移動する
bpy.ops.transform.translate(value=value)
//! [refer_prefs]
return {'RUNNING_MODAL'}
def invoke(self, context, event):
props = context.scene.tom_props
if context.area.type == 'VIEW_3D':
# 開始ボタンが押された時の処理
if props.running is False:
props.running = True
# modal処理クラスを追加
context.window_manager.modal_handler_add(self)
print("サンプル3-2: オブジェクト並進移動モードへ移行しました。")
def scan(numberOfRays, max_distance, elementsPerRay, keep_render_setup, do_shading, rays_buffer, returns_buffer, ELEMENTS_PER_RETURN):
if ELEMENTS_PER_RETURN != 8:
raise Exception("Scan interface incompatible")
# Step 1: Scene to polygons / store face indices and materials
tris = []
faces = []
face_array,obj_array,mat_array = scene_to_mesh()
for idx,f in enumerate(face_array):
tris.append(list(f[0]))
tris.append(list(f[1]))
tris.append(list(f[2]))
faces.append([idx*3,idx*3+1,idx*3+2])
# Step 2: Polygons to BVH tree
scene_bvh = BVHTree.FromPolygons(tris, faces, all_triangles = True)
# Step 3: Raycast rays
scanner = bpy.context.scene.camera
reflectivity_distance = scanner.ref_dist
reflectivity_limit = scanner.ref_limit
reflectivity_slope = scanner.ref_slope
origin = Vector([0.0,0.0,0.0])
direction = Vector([0.0,0.0,0.0])
hit_indices = [-1]*numberOfRays
for idx in range(numberOfRays):
direction.x = rays_buffer[idx*elementsPerRay]
direction.y = rays_buffer[idx*elementsPerRay+1]
direction.z = rays_buffer[idx*elementsPerRay+2]
if elementsPerRay>=6:
origin.x = rays_buffer[idx*elementsPerRay+3]
origin.y = rays_buffer[idx*elementsPerRay+4]
origin.z = rays_buffer[idx*elementsPerRay+5]
else:
origin.x = bpy.context.scene.camera.location.x
origin.y = bpy.context.scene.camera.location.y
origin.z = bpy.context.scene.camera.location.z
direction.rotate (scanner.matrix_world)
(hit_loc, hit_normal, hit_idx, hit_distance) = scene_bvh.ray_cast(origin,direction,max_distance)
valid_return = False
if hit_loc:
mat = mat_array[hit_idx]
diffuse_intensity = 1.0
if mat:
diffuse_intensity = mat.diffuse_intensity
#Calculate the required diffuse reflectivity of the material to create a return
ref_limit = blensor_calculate_reflectivity_limit(hit_distance, reflectivity_distance, reflectivity_limit, reflectivity_slope)
if diffuse_intensity > ref_limit:
valid_return = True
if mat:
color = mat.diffuse_color
returns_buffer[idx*ELEMENTS_PER_RETURN+5] = color.r
returns_buffer[idx*ELEMENTS_PER_RETURN+6] = color.g
returns_buffer[idx*ELEMENTS_PER_RETURN+7] = color.b
else:
returns_buffer[idx*ELEMENTS_PER_RETURN+5] = 1.0
returns_buffer[idx*ELEMENTS_PER_RETURN+6] = 1.0
returns_buffer[idx*ELEMENTS_PER_RETURN+7] = 1.0
returns_buffer[idx*ELEMENTS_PER_RETURN] = hit_distance
returns_buffer[idx*ELEMENTS_PER_RETURN+1] = hit_loc.x
returns_buffer[idx*ELEMENTS_PER_RETURN+2] = hit_loc.y
returns_buffer[idx*ELEMENTS_PER_RETURN+3] = hit_loc.z
obj = obj_array[hit_idx]
name = obj.name
returns_buffer[idx*ELEMENTS_PER_RETURN+4] = ord(name[0]) + (ord(name[1])<<8) + (ord(name[2])<<16) + (ord(name[3])<<24)
hit_indices[idx] = hit_idx
if not valid_return:
for r in range(ELEMENTS_PER_RETURN):
returns_buffer[idx*ELEMENTS_PER_RETURN+r] = 0.0
# Step 3: Shade rays
# TODO: Implement material solver
if do_shading:
for idx,mat_idx in enumerate(hit_indices):
if mat_idx >= 0:
#shade hit point
pass
def from_object(model, obj, root):
node = Mesh(name=obj.name)
triangulated_object, created_temp_mesh = create_triangulated_mesh(obj)
# apply rotation and scale transform to the object
# this ensures that any modifications are baked to the vertices
# before we output them to the file
triangulated_object.select = True
# This is used to transform the vertices and normals of the mesh.
world_matrix = model.global_matrix * triangulated_object.matrix_world.copy()
mesh = triangulated_object.to_mesh(bpy.context.scene, True, 'PREVIEW')
# collect all blender materials used by this mesh
for bmaterial in mesh.materials:
mat = model.add_material(bmaterial)
node.material_id = mat.index
cache = VertexCache()
bone_data = Mesh.process_armature(model, node, cache, obj)
model.bone_data = bone_data
weights = [[None]] * len(mesh.vertices)
vertices = []
mins = Vector((9999, 9999, 9999))
maxs = Vector((-9999, -9999, -9999))
# build a mapping from group index to bone index
total_bones = len(bone_data.ordered_items) if bone_data else 0
group_index_to_bone = [None] * total_bones
for group in obj.vertex_groups:
# convert group index to boneinfo.index
boneinfo = bone_data.find_by_name(group.name)
if not boneinfo:
# It's possible to have vertex groups for bones which
# may have been removed. Ignore these.
continue
group_index_to_bone[group.index] = boneinfo
for index, mv in enumerate(mesh.vertices):
position = world_matrix * mv.co
vertices.extend([(
position[0],
position[1],
position[2])])
if position[0] < mins.x:
mins.x = position[0]
elif position[0] > maxs.x:
maxs.x = position[0]
if position[1] < mins.y:
mins.y = position[1]
elif position[1] > maxs.y:
maxs.y = position[1]
if position[2] < mins.z:
mins.z = position[2]
elif position[2] > maxs.z:
maxs.z = position[2]
# don't add out of range indices
weights[index] = []
for group_element in mv.groups:
if group_element.group < total_bones:
bone = group_index_to_bone[group_element.group]
if bone and group_element.weight > 0.0:
if len(weights[index]) < 4:
weights[index].append({
"bone": bone.name,
"value": group_element.weight
})
#else:
# print("warning: dropping weight for bone '%s', %2.2f" % (bone.name, group_element.weight))
node.mins = [mins.x, mins.y, mins.z]
node.maxs = [maxs.x, maxs.y, maxs.z]
mesh.calc_normals_split()
normals = []
for loop in mesh.loops:
# transform normals
normal = (world_matrix.to_3x3() * loop.normal).normalized()
normals.append((normal[0], normal[1], normal[2]))
mesh.free_normals_split()
uvs = []
if not mesh.uv_layers:
uv_set = [(0.0, 0.0)] * len(mesh.loops)
uvs.append(uv_set)
else:
for uvlayer in mesh.uv_layers:
uv_set = []
print("extracting uv layer: %s" % uvlayer.name)
for uvloop in uvlayer.data:
uv_set.append([uvloop.uv[0], 1.0-uvloop.uv[1]])
uvs.append(uv_set)
colors = []
if not mesh.vertex_colors:
# add a default color set
color_set = ([(1.0, 1.0, 1.0, 1.0)] * len(mesh.loops))
colors.append(color_set)
else:
for color_layer in mesh.vertex_colors:
color_set = []
print("extracting color layer: %s" % color_layer.name)
for data in color_layer.data:
color_set.append((data.color[0], data.color[1], data.color[2], 1.0))
colors.append(color_set)
if weights:
print("total weights: %i, total vertices: %i" % (len(weights), len(vertices)))
assert(len(weights) == len(vertices))
# convert and copy geometry over to node
cache.populate_with_geometry(vertices, normals, uvs, colors, mesh.loops, weights=weights)
node.populate_with_vertex_cache(cache)
# de-select the previously selected object
triangulated_object.select = False
if created_temp_mesh:
# remove the triangulated object we created
bpy.ops.object.mode_set(mode='OBJECT')
bpy.context.scene.objects.unlink(triangulated_object)
return node
def write_mesh(context, filepath, use_apply_modifiers, float_precision, include_normals, include_tangents, include_bitangents, include_uvs, include_colors, include_weights, bones_per_vertex, global_matrix, export_skeleton, export_materials, copy_images):
# Allocate mesh data
vertices = []
vertex_set = set()
triangles = []
submeshes = []
bounds_min = Vector((float("inf"), float("inf"), float("inf")))
bounds_max = Vector((-float("inf"), -float("inf"), -float("inf")))
armature = None
# Determine vertex format
vertex_format = "position"
if include_uvs:
vertex_format += " uv"
if include_normals:
vertex_format += " normal"
if include_tangents:
vertex_format += " tangent"
if include_bitangents:
vertex_format += " bitangent"
if include_colors:
vertex_format += " color"
if include_weights:
vertex_format += " indices%d weights%d" % (bones_per_vertex, bones_per_vertex)
# Select objects to export
object = context.object
try:
mesh = object.to_mesh(context.scene, use_apply_modifiers, "PREVIEW")
except:
return
armature = object.parent
bm = bmesh.new()
bm.from_mesh(mesh)
bm.transform(global_matrix * object.matrix_world)
bmesh.ops.triangulate(bm, faces=bm.faces)
bm.normal_update()
uv_layer = bm.loops.layers.uv.active
color_layer = bm.loops.layers.color.active
deform_layer = bm.verts.layers.deform.active
# Sort faces by material
faces = bm.faces[:]
faces.sort(key=lambda a: a.material_index)
# Create empty submesh
submesh = Submesh()
previous_material_index = -1
for face in faces:
triangle_indices = []
# Change material
if face.material_index != previous_material_index:
# Update primitive count of previous submesh
submesh.primitive_count = len(triangles) - (submesh.start_index / 3)
# Create a new submesh
submesh = Submesh()
submesh.material = object.material_slots[face.material_index].material
submesh.start_index = len(triangles) * 3
submeshes.append(submesh)
previous_material_index = face.material_index
for loop in face.loops:
vert = loop.vert
v = Vertex()
v.position = vert.co.copy()
if include_normals:
if face.smooth:
v.normal = vert.normal.copy()
else:
v.normal = face.normal.copy()
if include_uvs and uv_layer is not None:
v.uv = loop[uv_layer].uv.copy()
if include_colors and color_layer is not None:
v.color = loop[color_layer].color.copy()
if include_tangents or include_bitangents:
tangent_space = calculate_tangent_space(vert, uv_layer)
v.tangent = tangent_space[0]
v.bitangent = tangent_space[1]
if include_weights and deform_layer is not None:
# Sort bones by most influential
sorted_groups = sorted(vert[deform_layer].items(), key=lambda item: item[1], reverse=True)
# Set vertex bone weights and calculate sum
weight_total = 0.0
for i in range(min(bones_per_vertex, len(sorted_groups))):
vertex_group = object.vertex_groups[sorted_groups[i][0]]
bone_index = armature.data.bones.find(vertex_group.name)
v.indices[i] = bone_index
v.weights[i] = sorted_groups[i][1]
weight_total += v.weights[i]
# Normalize weights
if weight_total > 0.0:
v.weights *= 1.0 / weight_total
if v not in vertex_set:
vertex_set.add(v)
triangle_indices.append(len(vertices))
vertices.append(v)
# Update bounds
bounds_min.x = min(bounds_min.x, v.position.x)
bounds_min.y = min(bounds_min.y, v.position.y)
bounds_min.z = min(bounds_min.z, v.position.z)
bounds_max.x = max(bounds_max.x, v.position.x)
bounds_max.y = max(bounds_max.y, v.position.y)
bounds_max.z = max(bounds_max.z, v.position.z)
else:
triangle_indices.append(vertices.index(v))
triangles.append(triangle_indices)
# Free BMesh
bm.free()
# Finalize last submesh
submesh.primitive_count = len(triangles) - (submesh.start_index / 3)
root_node = AttributeTreeNode()
root_node.set_attribute("version", OGF_VERSION_STRING)
mesh_node = root_node.create_child()
mesh_node.set_attribute("type", "mesh")
mesh_node.set_attribute("name", os.path.splitext(os.path.basename(filepath))[0])
mesh_node.set_attribute("vertex_format", vertex_format)
mesh_node.set_attribute("vertex_count", str(len(vertices)))
# Write vertices
vertices_attrib = ""
for v in vertices:
vertices_attrib += float3_format.format(float_precision, *v.position) + ' '
if include_uvs:
vertices_attrib += float2_format.format(float_precision, *v.uv) + ' '
if include_normals:
vertices_attrib += float3_format.format(float_precision, *v.normal) + ' '
if include_tangents:
vertices_attrib += float3_format.format(float_precision, *v.tangent.xyz) + ' '
if include_bitangents:
vertices_attrib += float3_format.format(float_precision, *v.bitangent.xyz) + ' '
if include_colors:
vertices_attrib += float3_format.format(float_precision, *v.color) + ' '
if include_weights:
for i in range(bones_per_vertex):
vertices_attrib += "{} ".format(v.indices[i])
for i in range(bones_per_vertex):
vertices_attrib += float_format.format(float_precision, v.weights[i]) + ' '
mesh_node.set_attribute("vertices", vertices_attrib)
mesh_node.set_attribute("index_count", str(len(triangles) * 3))
# Write indices
indices_attrib = ""
for t in triangles:
indices_attrib += "{} {} {} ".format(*t)
mesh_node.set_attribute("indices", indices_attrib)
# Write bounds
mesh_node.set_attribute("bounds_min", float3_format.format(float_precision, *bounds_min))
mesh_node.set_attribute("bounds_max", float3_format.format(float_precision, *bounds_max))
# Export skeleton
if export_skeleton and object.parent is not None and object.parent.type == "ARMATURE":
write_skeleton(filepath, float_precision, global_matrix, object.parent)
mesh_node.set_attribute("skeleton", object.parent.name + ".skeleton")
for submesh in submeshes:
material_filename = submesh.material.name + ".material"
submesh_node = mesh_node.create_child()
submesh_node.set_attribute("type", "submesh")
submesh_node.set_attribute("material", material_filename)
submesh_node.set_attribute("primitive_type", "triangle_list")
submesh_node.set_attribute("start_index", str(submesh.start_index))
submesh_node.set_attribute("primitive_count", str(int(submesh.primitive_count)))
file = open(filepath, "w", encoding="utf8", newline='\n')
root_node.serialize(file)
file.close()
# Export materials
if export_materials:
for submesh in submeshes:
write_material(filepath, copy_images, float_precision, submesh.material)
def make_tetras(cls, vertices):
## 1 : 点群を包含する四面体を求める
## 1-1: 点群を包含する球を求める
v_max = Vector((-999, -999, -999))
v_min = Vector(( 999, 999, 999))
for v in vertices:
if v_max.x < v.x: v_max.x = v.x
if v_max.y < v.y: v_max.y = v.y
if v_max.z < v.z: v_max.z = v.z
if v_min.x > v.x: v_min.x = v.x
if v_min.y > v.y: v_min.y = v.y
if v_min.z > v.z: v_min.z = v.z
center = (v_max - v_min)*0.5
r = max([(center-v).length for v in vertices]) ## 半径
r += 0.1 ## ちょっとおまけ
## 1-2: 球に外接する四面体を求める
v1 = Vector(( center.x
, center.y + 3.0*r
, center.z
))
v2 = Vector(( center.x - 2.0*math.sqrt(2)*r
, center.y - r
, center.z
))
v3 = Vector(( center.x + math.sqrt(2)*r
, center.y - r
, center.z + math.sqrt(6)*r
))
v4 = Vector(( center.x + math.sqrt(2)*r
, center.y - r
, center.z - math.sqrt(6)*r
))
outer = [v1, v2, v3, v4]
tetras = []
tetras.append(Tetrahedron(v1, v2, v3, v4))
def to_identifier(tetra):
vs = sorted(tetra.vertices, key=lambda v:v.x)
a,b,c,d = vs
return '{}/{}/{}//{}/{}/{}//{}/{}/{}//{}/{}/{}'.format( a.x,a.y,a.z
, b.x,b.y,b.z
, c.x,c.y,c.z
, d.x,d.y,d.z
)
def __scan__(hash_tetras, hash_added, tetra):
ide = to_identifier(tetra)
if ide in hash_added:
if ide in hash_tetras:
del hash_tetras[ide]
return
hash_tetras[ide] = tetra
hash_added[ide] = True
## 幾何形状を動的に変化させるための一時リスト
for v in vertices:
hash_tetras = {}
hash_added = {}
tmp_tlist = []
for t in tetras:
if t.o is not None and t.r > (v - t.o).length:
tmp_tlist.append(t)
for t1 in tmp_tlist:
## まずそれらを削除
tetras.remove(t1)
v1 = t1.vertices[0]
v2 = t1.vertices[1]
v3 = t1.vertices[2]
v4 = t1.vertices[3]
__scan__(hash_tetras, hash_added, Tetrahedron(v1, v2, v3, v))
__scan__(hash_tetras, hash_added, Tetrahedron(v1, v2, v4, v))
__scan__(hash_tetras, hash_added, Tetrahedron(v1, v3, v4, v))
__scan__(hash_tetras, hash_added, Tetrahedron(v2, v3, v4, v))
for t in hash_tetras.values():
tetras.append( t )
def cleanup(tetras, t4):
for p1 in t4.vertices:
for p2 in outer:
#if p1.x == p2.x and p1.y == p2.y and p1.z == p2.z:
if p1 == p2:
tetras.remove(t4)
return
for t4 in tetras.copy():
cleanup(tetras, t4)
return tetras
def execute(self, context):
if self.sculpties == []:
return {'CANCELLED'}
sculpt_bb = {}
gmin = None
gmax = None
edit_mode = context.mode == 'EDIT_MESH'
if edit_mode:
bpy.ops.object.editmode_toggle()
if self.reset_origin:
for obj in self.sculpties + self.objects:
if 'MIRROR' not in [m.type for m in obj.modifiers]:
bpy.ops.object.origin_set(type='ORIGIN_GEOMETRY',
center='MEDIAN')
for obj in self.sculpties:
mesh = obj.to_mesh(context.scene, True, 'RENDER')
vmin, vmax = bounding_box(mesh)
if not self.reset_origin:
vmax.x = max(abs(vmin.x), abs(vmax.x))
vmin.x = -vmax.x
vmax.y = max(abs(vmin.y), abs(vmax.y))
vmin.y = -vmax.y
vmax.z = max(abs(vmin.z), abs(vmax.z))
vmin.z = -vmax.z
if self.aligned:
if gmin is None:
gmin = Vector((vmin.x, vmin.y, vmin.z))
gmax = Vector((vmax.x, vmax.y, vmax.z))
else:
gmin.x = min(gmin.x, vmin.x)
gmin.y = min(gmin.y, vmin.y)
gmin.z = min(gmin.z, vmin.z)
gmax.x = max(gmax.x, vmax.x)
gmax.y = max(gmax.y, vmax.y)
gmax.z = max(gmax.z, vmax.z)
sculpt_bb[obj.name] = (vmin, vmax)
if self.use_objects:
for obj in self.objects:
mesh = obj.to_mesh(context.scene, True, 'RENDER')
vmin, vmax = bounding_box(mesh)
if gmin is None:
gmin = Vector((vmin.x, vmin.y, vmin.z))
gmax = Vector((vmax.x, vmax.y, vmax.z))
else:
gmin.x = min(gmin.x, vmin.x)
gmin.y = min(gmin.y, vmin.y)
gmin.z = min(gmin.z, vmin.z)
gmax.x = max(gmax.x, vmax.x)
gmax.y = max(gmax.y, vmax.y)
gmax.z = max(gmax.z, vmax.z)
if not self.reset_origin:
gmax.x = max(abs(gmin.x), abs(gmax.x))
gmin.x = -gmax.x
gmax.y = max(abs(gmin.y), abs(gmax.y))
gmin.y = -gmax.y
gmax.z = max(abs(gmin.z), abs(gmax.z))
gmin.z = -gmax.z
for obj_name in sculpt_bb:
smin, smax = sculpt_bb[obj_name]
if gmin is not None:
if self.aligned:
vmin = Vector((gmin.x, gmin.y, gmin.z))
vmax = Vector((gmax.x, gmax.y, gmax.z))
else:
vmin.x = min(gmin.x, smin.x)
vmin.y = min(gmin.y, smin.y)
vmin.z = min(gmin.z, smin.z)
vmax.x = max(gmax.x, smax.x)
vmax.y = max(gmax.y, smax.y)
vmax.z = max(gmax.z, smax.z)
if self.optimise:
# try to improve bake range. Make sure that
# any increases don't go beyond the original mesh
f = floor((vmax.x - vmin.x) / (smax.x - smin.x))
if f > 1.0:
size = (vmax.x - vmin.x) * 0.5
center = vmin.x + size
vmin.x = center - size / f
vmax.x = center + size / f
f = floor((vmax.y - vmin.y) / (smax.y - smin.y))
if f > 1.0:
size = (vmax.y - vmin.y) * 0.5
center = vmin.y + size
vmin.y = center - size / f
vmax.y = center + size / f
f = floor((vmax.z - vmin.z) / (smax.z - smin.z))
if f > 1.0:
size = (vmax.z - vmin.z) * 0.5
center = vmin.z + size
vmin.z = center - size / f
vmax.z = center + size / f
else:
vmin = smin
vmax = smax
if self.red_scale != 100.0:
red_range = vmax.x - vmin.x
if self.red_scale == 0.0:
red_adjust = red_range / 2.0
else:
new_range = red_range * 100.0 / self.red_scale
red_adjust = (new_range - red_range) / 2.0
vmin.x -= red_adjust
vmax.x += red_adjust
if self.green_scale != 100.0:
green_range = vmax.y - vmin.y
if self.green_scale == 0.0:
green_adjust = green_range / 2.0
else:
new_range = green_range * 100.0 / self.green_scale
green_adjust = (new_range - green_range) / 2.0
vmin.y -= green_adjust
vmax.y += green_adjust
if self.blue_scale != 100.0:
blue_range = vmax.z - vmin.z
if self.blue_scale == 0.0:
blue_adjust = blue_range / 2.0
else:
new_range = blue_range * 100.0 / self.blue_scale
blue_adjust = (new_range - blue_range) / 2.0
vmin.z -= blue_adjust
vmax.z += blue_adjust
bake(bpy.data.objects[obj_name], context.scene,
vmin, vmax, self.update_name)
for a in context.window.screen.areas:
for s in a.spaces:
if s.type == 'IMAGE_EDITOR':
# force refresh for missing images set to generated
if s.image is not None:
t = bpy.data.images[s.image.name]
s.image = t
if a.type == 'IMAGE_EDITOR':
a.tag_redraw()
if edit_mode:
bpy.ops.object.editmode_toggle()
if not self.no_dialog:
context.scene['sculpty_bake'] = {
'r': self.red_scale,
'g': self.green_scale,
'b': self.blue_scale,
'ro': self.reset_origin,
'uo': self.use_objects,
'a': self.aligned,
'o': self.optimise}
return {'FINISHED'}
def main(self, context):
obj = context.active_object
me = obj.data
bm = bmesh.from_edit_mesh(me)
face_sets = []
faces = []
force_orthogonal = self.properties.force_orthogonal
method = self.properties.method
# store data
for f in bm.faces:
if f.select:
if method == 'AVERAGE':
faces.append (f)
elif method == 'INDIVIDUAL':
face_sets.append ([f])
if method == 'AVERAGE':
face_sets.append (faces)
for fs in face_sets:
normal = Vector ()
center = Vector ()
for f in fs:
normal += f.normal
center += f.calc_center_median_weighted ()
normal.normalize ()
center /= len (fs)
if force_orthogonal:
x = abs (normal.x)
y = abs (normal.y)
z = abs (normal.z)
if x > y and x > z:
normal.x /= x
normal.y = 0.0
normal.z = 0.0
if y > x and y > z:
normal.x = 0.0
normal.y /= y
normal.z = 0.0
if z > y and z > x:
normal.x = 0.0
normal.y = 0.0
normal.z /= z
for f in fs:
for v in f.verts:
d = geometry.distance_point_to_plane (v.co, center, normal)
v.co -= normal * d
bmesh.update_edit_mesh(me)
def recursive_aabb(facelist, parent, level):
""" Recursively build a tree of aabb nodes, returns the root of the subtree.
"""
# This code is heavily inspired by nwmax and Waylands original code
if level > 20:
raise RuntimeError("Max recursion depth reached when building aabb "
"tree. Look for duplicate faces.")
bottom_left = Vector((10000, 10000, 10000))
top_right = Vector((-10000, -10000, -10000))
midpoints = Vector((0, 0, 0))
# First we calculate the bounding box
for face in facelist:
for x, y, z in face["verts"]:
if x < bottom_left.x:
bottom_left.x = x
if y < bottom_left.y:
bottom_left.y = y
if z < bottom_left.z:
bottom_left.z = z
if x > top_right.x:
top_right.x = x
if y > top_right.y:
top_right.y = y
if z > top_right.z:
top_right.z = z
midpoints += face["center"]
midpoint = midpoints / len(facelist)
bounding_box = {"co1": bottom_left[:], "co2": top_right[:],
"index": -1, "left": None,
"right": None, "parent": parent}
## If this is a leaf we're done
if len(facelist) == 1:
bounding_box["index"] = facelist[0]["index"]
return bounding_box
## Otherwise we have to decide how to do the splits
splits = {"x": {"left": [], "right": []},
"y": {"left": [], "right": []},
"z": {"left": [], "right": []}}
#find the best split, which is the split where the two sides are balanced
for face in facelist:
if face["center"].x < midpoint.x:
splits["x"]["left"].append(face)
else:
splits["x"]["right"].append(face)
if face["center"].y < midpoint.y:
splits["y"]["left"].append(face)
else:
splits["y"]["right"].append(face)
if face["center"].z < midpoint.z:
splits["z"]["left"].append(face)
else:
splits["z"]["right"].append(face)
split = None
#We calculate the difference between the two sides
delta_x = abs(len(splits["x"]["right"]) - len(splits["x"]["left"]))
delta_y = abs(len(splits["y"]["right"]) - len(splits["y"]["left"]))
delta_z = abs(len(splits["z"]["right"]) - len(splits["z"]["left"]))
# We pick the split where the difference between the splits are as small as possible
if delta_x < delta_y and delta_x < delta_z:
split = splits["x"]
elif delta_y < delta_z:
split = splits["y"]
else:
split = splits["z"]
if split["left"]:
bounding_box["left"] = recursive_aabb(split["left"], bounding_box, level + 1)
if split["right"]:
bounding_box["right"] = recursive_aabb(split["right"], bounding_box, level + 1)
return bounding_box
def main(filename):
sce = bpy.context.scene
obs = sce.objects
dfaces = {}
f = open(filename, 'w')
f.write('<?xml version="1.0" encoding="utf-8"?>\n<scene>\n\t<directionalLight>\n\t\t<color r="255" g="255" b="255"/>\n\t\t<direction x="-1" y="-1" z="-1"/>\n\t</directionalLight>\n\t<ambientLight>\n\t\t<color r="255" g="255" b="255"/>\n\t</ambientLight>\n')
for ob in obs:
if ob.type == 'CAMERA':
camz = Vector().to_4d()
camy = Vector().to_4d()
camy.y = 1
camy.w = 0
camz.z = -10
#camz.w = 0
target = ob.matrix_world * camz
normal = ob.matrix_world*camy
f.write('\t<camera>\n')
f.write('\t\t<position x="%f" y="%f" z="%f"/>\n' %(ob.location.x, ob.location.y, ob.location.z))
f.write('\t\t<target x="%f" y="%f" z="%f"/>\n' %(target.x, target.y, target.z))
f.write('\t\t<normal x="%f" y="%f" z="%f"/>' % (normal.x, normal.y, normal.z))
f.write('\n\t\t<viewplane w="16/2" h="9/2" d="%f"/>\n\t</camera>\n' %(ob.data.lens/4))
if ob.type == 'MESH':
dfaces = {}
mesh = ob.data
verts = mesh.vertices
ob_mat = ob.matrix_world
scale = Matrix()
scale[0][0] = ob.scale.x
scale[1][1] = ob.scale.y
scale[2][2] = ob.scale.z
verts = [ob_mat * scale * vert.co.to_4d() for vert in verts]
faces = mesh.polygons
for face in faces:
material = Material()
if len(ob.material_slots) > 0:
#print("index", face.material_index)
mat = ob.material_slots[face.material_index].material
if mat.use_vertex_color_paint:
material.color = mesh.vertex_colors[0].data[face.index].color1
else:
material.color = mat.diffuse_color
if mat.use_transparency:
material.transparency= mat.raytrace_transparency.fresnel_factor
if mat.use_raytrace:
material.reflexivity = mat.raytrace_mirror.reflect_factor
material.ambiant = mat.ambient
material.diffuse = mat.diffuse_intensity
material.specular = mat.specular_intensity
material.shininess = mat.specular_hardness
if not material in dfaces:
dfaces[material] = []
dfaces[material].append(face)
for material in dfaces:
f.write("\t<object>\n")
f.write('\t\t<shape>\n')
f.write('\t\t\t<list>\n')
for face in dfaces[material]:
vs = face.vertices
if len(vs)==3:
writeTriangle(f, mesh.vertices, verts, vs, material)
elif len(vs)==4:
vs1 = vs[:3]
vs2 = [vs[0],vs[2], vs[3]]
writeTriangle(f, mesh.vertices, verts, vs1, material)
writeTriangle(f, mesh.vertices, verts, vs2, material)
else:
print("Pas de face")
f.write('\t\t\t</list>\n')
f.write('\t\t</shape>\n')
f.write('\t\t<material>\n\t\t\t<phong>\n')
f.write('\t\t\t\t<color r="%d" g="%d" b="%d"/>\n' % (int(255*material.color.r), int(255*material.color.g), int(255*material.color.b)))
f.write('\t\t\t\t<specular v="%f"/>\n' % (material.specular))
f.write('\t\t\t\t<diffuse v="%f"/>\n' % (material.diffuse))
f.write('\t\t\t\t<ambiant v="%f"/>\n' % (material.ambiant))
f.write('\t\t\t\t<shininess v="%f"/>\n' % (material.shininess))
f.write('\t\t\t\t<reflexivity v="%f"/>\n' % (material.reflexivity))
f.write('\t\t\t\t<transparency v="%f"/>\n' % (material.transparency))
f.write('\t\t\t</phong>\n\t\t</material>\n')
f.write("\t</object>\n")
f.write("</scene>")
f.close()
print ("\nExport to PRay xml completed.")
return {'FINISHED'}
