Update Logging

You can choose between errors, warning, info or full debug, errors will always log to ensure we don't have silent failures with debug on or off.
This commit is contained in:
Yusarina
2025-04-11 23:45:36 +01:00
parent d1912d2dba
commit c31d25dd01
48 changed files with 15954 additions and 14 deletions
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import os
import tomllib
# This is a temporary workaround i be changing how MMD Tools works later when it comes to getting version number.
try:
current_dir = os.path.dirname(os.path.abspath(__file__))
root_dir = os.path.dirname(os.path.dirname(current_dir))
manifest_path = os.path.join(root_dir, 'blender_manifest.toml')
if os.path.exists(manifest_path):
with open(manifest_path, 'rb') as f:
manifest = tomllib.load(f)
AVATAR_TOOLKIT_VERSION = manifest.get('version', '0.2.1')
else:
AVATAR_TOOLKIT_VERSION = '0.2.1'
except Exception:
AVATAR_TOOLKIT_VERSION = '0.2.1'
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import contextlib
from typing import Generator, List, Optional, TypeVar
import bpy
class Props: # For API changes of only name changed properties
show_in_front = "show_in_front"
display_type = "display_type"
display_size = "display_size"
empty_display_type = "empty_display_type"
empty_display_size = "empty_display_size"
class __EditMode:
def __init__(self, obj):
if not isinstance(obj, bpy.types.Object):
raise ValueError
self.__prevMode = obj.mode
self.__obj = obj
self.__obj_select = obj.select_get()
with select_object(obj):
if obj.mode != "EDIT":
bpy.ops.object.mode_set(mode="EDIT")
def __enter__(self):
return self.__obj.data
def __exit__(self, type, value, traceback):
if self.__prevMode == "EDIT":
bpy.ops.object.mode_set(mode="OBJECT") # update edited data
bpy.ops.object.mode_set(mode=self.__prevMode)
self.__obj.select_set(self.__obj_select)
class __SelectObjects:
def __init__(self, active_object: bpy.types.Object, selected_objects: Optional[List[bpy.types.Object]] = None):
if not isinstance(active_object, bpy.types.Object):
raise ValueError
try:
bpy.ops.object.mode_set(mode="OBJECT")
except Exception:
pass
contenxt = FnContext.ensure_context()
for i in contenxt.selected_objects:
i.select_set(False)
self.__active_object = active_object
self.__selected_objects = tuple(set(selected_objects) | set([active_object])) if selected_objects else (active_object,)
self.__hides: List[bool] = []
for i in self.__selected_objects:
self.__hides.append(i.hide_get())
FnContext.select_object(contenxt, i)
FnContext.set_active_object(contenxt, active_object)
def __enter__(self) -> bpy.types.Object:
return self.__active_object
def __exit__(self, type, value, traceback):
for i, j in zip(self.__selected_objects, self.__hides):
i.hide_set(j)
def setParent(obj, parent):
with select_object(parent, objects=[parent, obj]):
bpy.ops.object.parent_set(type="OBJECT", xmirror=False, keep_transform=False)
def setParentToBone(obj, parent, bone_name):
with select_object(parent, objects=[parent, obj]):
bpy.ops.object.mode_set(mode="POSE")
parent.data.bones.active = parent.data.bones[bone_name]
bpy.ops.object.parent_set(type="BONE", xmirror=False, keep_transform=False)
bpy.ops.object.mode_set(mode="OBJECT")
def edit_object(obj):
"""Set the object interaction mode to 'EDIT'
It is recommended to use 'edit_object' with 'with' statement like the following code.
with edit_object:
some functions...
"""
return __EditMode(obj)
def select_object(obj: bpy.types.Object, objects: Optional[List[bpy.types.Object]] = None):
"""Select objects.
It is recommended to use 'select_object' with 'with' statement like the following code.
This function can select "hidden" objects safely.
with select_object(obj):
some functions...
"""
# TODO: Reimplement with bpy.context.temp_override (If it ain't broke, don't fix it.)
return __SelectObjects(obj, objects)
def duplicateObject(obj, total_len):
return FnContext.duplicate_object(FnContext.ensure_context(), obj, total_len)
def createObject(name="Object", object_data=None, target_scene=None):
context = FnContext.ensure_context(target_scene)
return FnContext.set_active_object(context, FnContext.new_and_link_object(context, name, object_data))
def makeSphere(segment=8, ring_count=5, radius=1.0, target_object=None):
import bmesh
if target_object is None:
target_object = createObject(name="Sphere")
mesh = target_object.data
bm = bmesh.new()
bmesh.ops.create_uvsphere(
bm,
u_segments=segment,
v_segments=ring_count,
radius=radius,
)
for f in bm.faces:
f.smooth = True
bm.to_mesh(mesh)
bm.free()
return target_object
def makeBox(size=(1, 1, 1), target_object=None):
import bmesh
from mathutils import Matrix
if target_object is None:
target_object = createObject(name="Box")
mesh = target_object.data
bm = bmesh.new()
bmesh.ops.create_cube(
bm,
size=2,
matrix=Matrix([[size[0], 0, 0, 0], [0, size[1], 0, 0], [0, 0, size[2], 0], [0, 0, 0, 1]]),
)
for f in bm.faces:
f.smooth = True
bm.to_mesh(mesh)
bm.free()
return target_object
def makeCapsule(segment=8, ring_count=2, radius=1.0, height=1.0, target_object=None):
import math
import bmesh
if target_object is None:
target_object = createObject(name="Capsule")
height = max(height, 1e-3)
mesh = target_object.data
bm = bmesh.new()
verts = bm.verts
top = (0, 0, height / 2 + radius)
verts.new(top)
# f = lambda i: radius*i/ring_count
f = lambda i: radius * math.sin(0.5 * math.pi * i / ring_count)
for i in range(ring_count, 0, -1):
z = f(i - 1)
t = math.sqrt(radius**2 - z**2)
for j in range(segment):
theta = 2 * math.pi / segment * j
x = t * math.sin(-theta)
y = t * math.cos(-theta)
verts.new((x, y, z + height / 2))
for i in range(ring_count):
z = -f(i)
t = math.sqrt(radius**2 - z**2)
for j in range(segment):
theta = 2 * math.pi / segment * j
x = t * math.sin(-theta)
y = t * math.cos(-theta)
verts.new((x, y, z - height / 2))
bottom = (0, 0, -(height / 2 + radius))
verts.new(bottom)
if hasattr(verts, "ensure_lookup_table"):
verts.ensure_lookup_table()
faces = bm.faces
for i in range(1, segment):
faces.new([verts[x] for x in (0, i, i + 1)])
faces.new([verts[x] for x in (0, segment, 1)])
offset = segment + 1
for i in range(ring_count * 2 - 1):
for j in range(segment - 1):
t = offset + j
faces.new([verts[x] for x in (t - segment, t, t + 1, t - segment + 1)])
faces.new([verts[x] for x in (offset - 1, offset + segment - 1, offset, offset - segment)])
offset += segment
for i in range(segment - 1):
t = offset + i
faces.new([verts[x] for x in (t - segment, offset, t - segment + 1)])
faces.new([verts[x] for x in (offset - 1, offset, offset - segment)])
for f in bm.faces:
f.smooth = True
bm.normal_update()
bm.to_mesh(mesh)
bm.free()
return target_object
class TransformConstraintOp:
__MIN_MAX_MAP = {"ROTATION": "_rot", "SCALE": "_scale"}
@staticmethod
def create(constraints, name, map_type):
c = constraints.get(name, None)
if c and c.type != "TRANSFORM":
constraints.remove(c)
c = None
if c is None:
c = constraints.new("TRANSFORM")
c.name = name
c.use_motion_extrapolate = True
c.target_space = c.owner_space = "LOCAL"
c.map_from = c.map_to = map_type
c.map_to_x_from = "X"
c.map_to_y_from = "Y"
c.map_to_z_from = "Z"
c.influence = 1
return c
@classmethod
def min_max_attributes(cls, map_type, name_id=""):
key = (map_type, name_id)
ret = cls.__MIN_MAX_MAP.get(key, None)
if ret is None:
defaults = (i + j + k for i in ("from_", "to_") for j in ("min_", "max_") for k in "xyz")
extension = cls.__MIN_MAX_MAP.get(map_type, "")
ret = cls.__MIN_MAX_MAP[key] = tuple(n + extension for n in defaults if name_id in n)
return ret
@classmethod
def update_min_max(cls, constraint, value, influence=1):
c = constraint
if not c or c.type != "TRANSFORM":
return
for attr in cls.min_max_attributes(c.map_from, "from_min"):
setattr(c, attr, -value)
for attr in cls.min_max_attributes(c.map_from, "from_max"):
setattr(c, attr, value)
if influence is None:
return
for attr in cls.min_max_attributes(c.map_to, "to_min"):
setattr(c, attr, -value * influence)
for attr in cls.min_max_attributes(c.map_to, "to_max"):
setattr(c, attr, value * influence)
class FnObject:
def __init__(self):
raise NotImplementedError("This class is not expected to be instantiated.")
@staticmethod
def mesh_remove_shape_key(mesh_object: bpy.types.Object, shape_key: bpy.types.ShapeKey):
assert isinstance(mesh_object.data, bpy.types.Mesh)
key: bpy.types.Key = shape_key.id_data
assert key == mesh_object.data.shape_keys
if mesh_object.animation_data is not None:
fc_curve: bpy.types.FCurve
for fc_curve in mesh_object.animation_data.drivers:
if not fc_curve.data_path.startswith(shape_key.path_from_id()):
continue
mesh_object.driver_remove(fc_curve.data_path)
key_blocks = key.key_blocks
last_index = mesh_object.active_shape_key_index or 0
if last_index >= key_blocks.find(shape_key.name):
last_index = max(0, last_index - 1)
mesh_object.shape_key_remove(shape_key)
mesh_object.active_shape_key_index = min(last_index, len(key_blocks) - 1)
ADDON_PREFERENCE_ATTRIBUTE_VALUE_TYPE = TypeVar("ADDON_PREFERENCE_ATTRIBUTE_VALUE_TYPE")
class FnContext:
def __init__(self):
raise NotImplementedError("This class is not expected to be instantiated.")
@staticmethod
def ensure_context(context: Optional[bpy.types.Context] = None) -> bpy.types.Context:
return context or bpy.context
@staticmethod
def get_active_object(context: bpy.types.Context) -> Optional[bpy.types.Object]:
return context.active_object
@staticmethod
def set_active_object(context: bpy.types.Context, obj: bpy.types.Object) -> bpy.types.Object:
context.view_layer.objects.active = obj
return obj
@staticmethod
def set_active_and_select_single_object(context: bpy.types.Context, obj: bpy.types.Object) -> bpy.types.Object:
return FnContext.set_active_object(context, FnContext.select_single_object(context, obj))
@staticmethod
def get_scene_objects(context: bpy.types.Context) -> bpy.types.SceneObjects:
return context.scene.objects
@staticmethod
def ensure_selectable(context: bpy.types.Context, obj: bpy.types.Object) -> bpy.types.Object:
obj.hide_viewport = False
obj.hide_select = False
obj.hide_set(False)
if obj not in context.selectable_objects:
def __layer_check(layer_collection: bpy.types.LayerCollection) -> bool:
for lc in layer_collection.children:
if __layer_check(lc):
lc.hide_viewport = False
lc.collection.hide_viewport = False
lc.collection.hide_select = False
return True
if obj in layer_collection.collection.objects.values():
if layer_collection.exclude:
layer_collection.exclude = False
return True
return False
selected_objects = set(context.selected_objects)
__layer_check(context.view_layer.layer_collection)
if len(context.selected_objects) != len(selected_objects):
for i in context.selected_objects:
if i not in selected_objects:
i.select_set(False)
return obj
@staticmethod
def select_object(context: bpy.types.Context, obj: bpy.types.Object) -> bpy.types.Object:
FnContext.ensure_selectable(context, obj).select_set(True)
return obj
@staticmethod
def select_objects(context: bpy.types.Context, *objects: bpy.types.Object) -> List[bpy.types.Object]:
return [FnContext.select_object(context, obj) for obj in objects]
@staticmethod
def select_single_object(context: bpy.types.Context, obj: bpy.types.Object) -> bpy.types.Object:
for i in context.selected_objects:
if i != obj:
i.select_set(False)
return FnContext.select_object(context, obj)
@staticmethod
def link_object(context: bpy.types.Context, obj: bpy.types.Object) -> bpy.types.Object:
context.collection.objects.link(obj)
return obj
@staticmethod
def new_and_link_object(context: bpy.types.Context, name: str, object_data: Optional[bpy.types.ID]) -> bpy.types.Object:
return FnContext.link_object(context, bpy.data.objects.new(name=name, object_data=object_data))
@staticmethod
def duplicate_object(context: bpy.types.Context, object_to_duplicate: bpy.types.Object, target_count: int) -> List[bpy.types.Object]:
"""
Duplicate object.
This function duplicates the given object and returns a list of duplicated objects.
Args:
context (bpy.types.Context): The context in which the duplication is performed.
object_to_duplicate (bpy.types.Object): The object to be duplicated.
target_count (int): The desired count of duplicated objects.
Returns:
List[bpy.types.Object]: A list of duplicated objects.
Raises:
AssertionError: If the number of selected objects in the context is not equal to 1 or if the selected object is not the same as the object to be duplicated.
"""
for o in context.selected_objects:
o.select_set(False)
object_to_duplicate.select_set(True)
assert len(context.selected_objects) == 1
assert context.selected_objects[0] == object_to_duplicate
last_selected_objects = result_objects = [object_to_duplicate]
while len(result_objects) < target_count:
bpy.ops.object.duplicate()
result_objects.extend(context.selected_objects)
remain = target_count - len(result_objects) - len(context.selected_objects)
if remain < 0:
last_selected_objects = context.selected_objects
for i in range(-remain):
last_selected_objects[i].select_set(False)
else:
for i in range(min(remain, len(last_selected_objects))):
last_selected_objects[i].select_set(True)
last_selected_objects = context.selected_objects
assert len(result_objects) == target_count
return result_objects
@staticmethod
def find_user_layer_collection_by_object(context: bpy.types.Context, target_object: bpy.types.Object) -> Optional[bpy.types.LayerCollection]:
"""
Finds the layer collection that contains the given target_object in the user's collections.
Args:
context (bpy.types.Context): The Blender context.
target_object (bpy.types.Object): The target object to find the layer collection for.
Returns:
Optional[bpy.types.LayerCollection]: The layer collection that contains the target_object, or None if not found.
"""
scene_layer_collection: bpy.types.LayerCollection = context.view_layer.layer_collection
def find_layer_collection_by_name(layer_collection: bpy.types.LayerCollection, name: str) -> Optional[bpy.types.LayerCollection]:
if layer_collection.name == name:
return layer_collection
child_layer_collection: bpy.types.LayerCollection
for child_layer_collection in layer_collection.children:
found = find_layer_collection_by_name(child_layer_collection, name)
if found is not None:
return found
return None
user_collection: bpy.types.Collection
for user_collection in target_object.users_collection:
found = find_layer_collection_by_name(scene_layer_collection, user_collection.name)
if found is not None:
return found
return None
@staticmethod
@contextlib.contextmanager
def temp_override_active_layer_collection(context: bpy.types.Context, target_object: bpy.types.Object) -> Generator[bpy.types.Context, None, None]:
"""
Context manager to temporarily override the active_layer_collection that contains the target object.
This context manager allows you to temporarily change the active_layer_collection in the given context to the one that contains the target object.
It ensures that the original active_layer_collection is restored after the context is exited.
Args:
context (bpy.types.Context): The context in which the active_layer_collection will be overridden.
target_object (bpy.types.Object): The target object whose layer collection will be set as the active_layer_collection.
Yields:
bpy.types.Context: The modified context with the active_layer_collection overridden.
Example:
with FnContext.temp_override_active_layer_collection(context, target_object):
# Perform operations with the modified context
bpy.ops.object.select_all(action='DESELECT')
target_object.select_set(True)
bpy.ops.object.delete()
"""
original_layer_collection = context.view_layer.active_layer_collection
target_layer_collection = FnContext.find_user_layer_collection_by_object(context, target_object)
if target_layer_collection is not None:
context.view_layer.active_layer_collection = target_layer_collection
try:
yield context
finally:
if context.view_layer.active_layer_collection.name != original_layer_collection.name:
context.view_layer.active_layer_collection = original_layer_collection
@staticmethod
def __get_addon_preferences(context: bpy.types.Context) -> Optional[bpy.types.AddonPreferences]:
addon: bpy.types.Addon = context.preferences.addons.get(__package__, None)
return addon.preferences if addon else None
@staticmethod
def get_addon_preferences_attribute(context: bpy.types.Context, attribute_name: str, default_value: ADDON_PREFERENCE_ATTRIBUTE_VALUE_TYPE = None) -> ADDON_PREFERENCE_ATTRIBUTE_VALUE_TYPE:
return getattr(FnContext.__get_addon_preferences(context), attribute_name, default_value)
@staticmethod
def temp_override_objects(
context: bpy.types.Context,
window: Optional[bpy.types.Window] = None,
area: Optional[bpy.types.Area] = None,
region: Optional[bpy.types.Region] = None,
active_object: Optional[bpy.types.Object] = None,
selected_objects: Optional[List[bpy.types.Object]] = None,
**keywords,
) -> Generator[bpy.types.Context, None, None]:
if active_object is not None:
keywords["active_object"] = active_object
keywords["object"] = active_object
if selected_objects is not None:
keywords["selected_objects"] = selected_objects
keywords["selected_editable_objects"] = selected_objects
return context.temp_override(window=window, area=area, region=region, **keywords)
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import math
from typing import TYPE_CHECKING, Iterable, Optional, Set
import bpy
from mathutils import Vector
from .. import bpyutils
from ..bpyutils import TransformConstraintOp
from ..utils import ItemOp
if TYPE_CHECKING:
from ..properties.root import MMDRoot, MMDDisplayItemFrame
from ..properties.pose_bone import MMDBone
def remove_constraint(constraints, name):
c = constraints.get(name, None)
if c:
constraints.remove(c)
return True
return False
def remove_edit_bones(edit_bones, bone_names):
for name in bone_names:
b = edit_bones.get(name, None)
if b:
edit_bones.remove(b)
BONE_COLLECTION_CUSTOM_PROPERTY_NAME = "mmd_tools"
BONE_COLLECTION_CUSTOM_PROPERTY_VALUE_SPECIAL = "special collection"
BONE_COLLECTION_CUSTOM_PROPERTY_VALUE_NORMAL = "normal collection"
BONE_COLLECTION_NAME_SHADOW = "mmd_shadow"
BONE_COLLECTION_NAME_DUMMY = "mmd_dummy"
SPECIAL_BONE_COLLECTION_NAMES = [BONE_COLLECTION_NAME_SHADOW, BONE_COLLECTION_NAME_DUMMY]
class FnBone:
AUTO_LOCAL_AXIS_ARMS = ("左肩", "左腕", "左ひじ", "左手首", "右腕", "右肩", "右ひじ", "右手首")
AUTO_LOCAL_AXIS_FINGERS = ("親指", "人指", "中指", "薬指", "小指")
AUTO_LOCAL_AXIS_SEMI_STANDARD_ARMS = ("左腕捩", "左手捩", "左肩P", "左ダミー", "右腕捩", "右手捩", "右肩P", "右ダミー")
def __init__(self):
raise NotImplementedError("This class cannot be instantiated.")
@staticmethod
def find_pose_bone_by_bone_id(armature_object: bpy.types.Object, bone_id: int) -> Optional[bpy.types.PoseBone]:
for bone in armature_object.pose.bones:
if bone.mmd_bone.bone_id != bone_id:
continue
return bone
return None
@staticmethod
def __new_bone_id(armature_object: bpy.types.Object) -> int:
return max(b.mmd_bone.bone_id for b in armature_object.pose.bones) + 1
@staticmethod
def get_or_assign_bone_id(pose_bone: bpy.types.PoseBone) -> int:
if pose_bone.mmd_bone.bone_id < 0:
pose_bone.mmd_bone.bone_id = FnBone.__new_bone_id(pose_bone.id_data)
return pose_bone.mmd_bone.bone_id
@staticmethod
def __get_selected_pose_bones(armature_object: bpy.types.Object) -> Iterable[bpy.types.PoseBone]:
if armature_object.mode == "EDIT":
bpy.ops.object.mode_set(mode="OBJECT") # update selected bones
bpy.ops.object.mode_set(mode="EDIT") # back to edit mode
context_selected_bones = bpy.context.selected_pose_bones or bpy.context.selected_bones or []
bones = armature_object.pose.bones
return (bones[b.name] for b in context_selected_bones if not bones[b.name].is_mmd_shadow_bone)
@staticmethod
def load_bone_fixed_axis(armature_object: bpy.types.Object, enable=True):
for b in FnBone.__get_selected_pose_bones(armature_object):
mmd_bone: MMDBone = b.mmd_bone
mmd_bone.enabled_fixed_axis = enable
lock_rotation = b.lock_rotation[:]
if enable:
axes = b.bone.matrix_local.to_3x3().transposed()
if lock_rotation.count(False) == 1:
mmd_bone.fixed_axis = axes[lock_rotation.index(False)].xzy
else:
mmd_bone.fixed_axis = axes[1].xzy # Y-axis
elif all(b.lock_location) and lock_rotation.count(True) > 1 and lock_rotation == (b.lock_ik_x, b.lock_ik_y, b.lock_ik_z):
# unlock transform locks if fixed axis was applied
b.lock_ik_x, b.lock_ik_y, b.lock_ik_z = b.lock_rotation = (False, False, False)
b.lock_location = b.lock_scale = (False, False, False)
@staticmethod
def setup_special_bone_collections(armature_object: bpy.types.Object) -> bpy.types.Object:
armature: bpy.types.Armature = armature_object.data
bone_collections = armature.collections
for bone_collection_name in SPECIAL_BONE_COLLECTION_NAMES:
if bone_collection_name in bone_collections:
continue
bone_collection = bone_collections.new(bone_collection_name)
FnBone.__set_bone_collection_to_special(bone_collection, is_visible=False)
return armature_object
@staticmethod
def __is_mmd_tools_bone_collection(bone_collection: bpy.types.BoneCollection) -> bool:
return BONE_COLLECTION_CUSTOM_PROPERTY_NAME in bone_collection
@staticmethod
def __is_special_bone_collection(bone_collection: bpy.types.BoneCollection) -> bool:
return BONE_COLLECTION_CUSTOM_PROPERTY_VALUE_SPECIAL == bone_collection.get(BONE_COLLECTION_CUSTOM_PROPERTY_NAME)
@staticmethod
def __set_bone_collection_to_special(bone_collection: bpy.types.BoneCollection, is_visible: bool):
bone_collection[BONE_COLLECTION_CUSTOM_PROPERTY_NAME] = BONE_COLLECTION_CUSTOM_PROPERTY_VALUE_SPECIAL
bone_collection.is_visible = is_visible
@staticmethod
def __is_normal_bone_collection(bone_collection: bpy.types.BoneCollection) -> bool:
return BONE_COLLECTION_CUSTOM_PROPERTY_VALUE_NORMAL == bone_collection.get(BONE_COLLECTION_CUSTOM_PROPERTY_NAME)
@staticmethod
def __set_bone_collection_to_normal(bone_collection: bpy.types.BoneCollection):
bone_collection[BONE_COLLECTION_CUSTOM_PROPERTY_NAME] = BONE_COLLECTION_CUSTOM_PROPERTY_VALUE_NORMAL
@staticmethod
def __set_edit_bone_to_special(edit_bone: bpy.types.EditBone, bone_collection_name: str) -> bpy.types.EditBone:
edit_bone.id_data.collections[bone_collection_name].assign(edit_bone)
edit_bone.use_deform = False
return edit_bone
@staticmethod
def set_edit_bone_to_dummy(edit_bone: bpy.types.EditBone) -> bpy.types.EditBone:
return FnBone.__set_edit_bone_to_special(edit_bone, BONE_COLLECTION_NAME_DUMMY)
@staticmethod
def set_edit_bone_to_shadow(edit_bone: bpy.types.EditBone) -> bpy.types.EditBone:
return FnBone.__set_edit_bone_to_special(edit_bone, BONE_COLLECTION_NAME_SHADOW)
@staticmethod
def __unassign_mmd_tools_bone_collections(edit_bone: bpy.types.EditBone) -> bpy.types.EditBone:
for bone_collection in edit_bone.collections:
if not FnBone.__is_mmd_tools_bone_collection(bone_collection):
continue
bone_collection.unassign(edit_bone)
return edit_bone
@staticmethod
def sync_bone_collections_from_display_item_frames(armature_object: bpy.types.Object):
armature: bpy.types.Armature = armature_object.data
bone_collections = armature.collections
from .model import FnModel
root_object: bpy.types.Object = FnModel.find_root_object(armature_object)
mmd_root: MMDRoot = root_object.mmd_root
bones = armature.bones
used_groups = set()
unassigned_bone_names = {b.name for b in bones}
for frame in mmd_root.display_item_frames:
for item in frame.data:
if item.type == "BONE" and item.name in unassigned_bone_names:
unassigned_bone_names.remove(item.name)
group_name = frame.name
used_groups.add(group_name)
bone_collection = bone_collections.get(group_name)
if bone_collection is None:
bone_collection = bone_collections.new(name=group_name)
FnBone.__set_bone_collection_to_normal(bone_collection)
bone_collection.assign(bones[item.name])
for name in unassigned_bone_names:
for bc in bones[name].collections:
if not FnBone.__is_mmd_tools_bone_collection(bc):
continue
if not FnBone.__is_normal_bone_collection(bc):
continue
bc.unassign(bones[name])
# remove unused bone groups
for bone_collection in bone_collections.values():
if bone_collection.name in used_groups:
continue
if not FnBone.__is_mmd_tools_bone_collection(bone_collection):
continue
if not FnBone.__is_normal_bone_collection(bone_collection):
continue
bone_collections.remove(bone_collection)
@staticmethod
def sync_display_item_frames_from_bone_collections(armature_object: bpy.types.Object):
armature: bpy.types.Armature = armature_object.data
bone_collections: bpy.types.BoneCollections = armature.collections
from .model import FnModel
root_object: bpy.types.Object = FnModel.find_root_object(armature_object)
mmd_root: MMDRoot = root_object.mmd_root
display_item_frames = mmd_root.display_item_frames
used_frame_index: Set[int] = set()
bone_collection: bpy.types.BoneCollection
for bone_collection in bone_collections:
if len(bone_collection.bones) == 0 or FnBone.__is_special_bone_collection(bone_collection):
continue
bone_collection_name = bone_collection.name
display_item_frame: Optional[MMDDisplayItemFrame] = display_item_frames.get(bone_collection_name)
if display_item_frame is None:
display_item_frame = display_item_frames.add()
display_item_frame.name = bone_collection_name
display_item_frame.name_e = bone_collection_name
used_frame_index.add(display_item_frames.find(bone_collection_name))
ItemOp.resize(display_item_frame.data, len(bone_collection.bones))
for display_item, bone in zip(display_item_frame.data, bone_collection.bones):
display_item.type = "BONE"
display_item.name = bone.name
for i in reversed(range(len(display_item_frames))):
if i in used_frame_index:
continue
display_item_frame = display_item_frames[i]
if display_item_frame.is_special:
if display_item_frame.name != "表情":
display_item_frame.data.clear()
else:
display_item_frames.remove(i)
mmd_root.active_display_item_frame = 0
@staticmethod
def apply_bone_fixed_axis(armature_object: bpy.types.Object):
bone_map = {}
for b in armature_object.pose.bones:
if b.is_mmd_shadow_bone or not b.mmd_bone.enabled_fixed_axis:
continue
mmd_bone: MMDBone = b.mmd_bone
parent_tip = b.parent and not b.parent.is_mmd_shadow_bone and b.parent.mmd_bone.is_tip
bone_map[b.name] = (mmd_bone.fixed_axis.normalized(), mmd_bone.is_tip, parent_tip)
force_align = True
with bpyutils.edit_object(armature_object) as data:
bone: bpy.types.EditBone
for bone in data.edit_bones:
if bone.name not in bone_map:
bone.select = False
continue
fixed_axis, is_tip, parent_tip = bone_map[bone.name]
if fixed_axis.length:
axes = [bone.x_axis, bone.y_axis, bone.z_axis]
direction = fixed_axis.normalized().xzy
idx, val = max([(i, direction.dot(v)) for i, v in enumerate(axes)], key=lambda x: abs(x[1]))
idx_1, idx_2 = (idx + 1) % 3, (idx + 2) % 3
axes[idx] = -direction if val < 0 else direction
axes[idx_2] = axes[idx].cross(axes[idx_1])
axes[idx_1] = axes[idx_2].cross(axes[idx])
if parent_tip and bone.use_connect:
bone.use_connect = False
bone.head = bone.parent.head
if force_align:
tail = bone.head + axes[1].normalized() * bone.length
if is_tip or (tail - bone.tail).length > 1e-4:
for c in bone.children:
if c.use_connect:
c.use_connect = False
if is_tip:
c.head = bone.head
bone.tail = tail
bone.align_roll(axes[2])
bone_map[bone.name] = tuple(i != idx for i in range(3))
else:
bone_map[bone.name] = (True, True, True)
bone.select = True
for bone_name, locks in bone_map.items():
b = armature_object.pose.bones[bone_name]
b.lock_location = (True, True, True)
b.lock_ik_x, b.lock_ik_y, b.lock_ik_z = b.lock_rotation = locks
@staticmethod
def load_bone_local_axes(armature_object: bpy.types.Object, enable=True):
for b in FnBone.__get_selected_pose_bones(armature_object):
mmd_bone: MMDBone = b.mmd_bone
mmd_bone.enabled_local_axes = enable
if enable:
axes = b.bone.matrix_local.to_3x3().transposed()
mmd_bone.local_axis_x = axes[0].xzy
mmd_bone.local_axis_z = axes[2].xzy
@staticmethod
def apply_bone_local_axes(armature_object: bpy.types.Object):
bone_map = {}
for b in armature_object.pose.bones:
if b.is_mmd_shadow_bone or not b.mmd_bone.enabled_local_axes:
continue
mmd_bone: MMDBone = b.mmd_bone
bone_map[b.name] = (mmd_bone.local_axis_x, mmd_bone.local_axis_z)
with bpyutils.edit_object(armature_object) as data:
bone: bpy.types.EditBone
for bone in data.edit_bones:
if bone.name not in bone_map:
bone.select = False
continue
local_axis_x, local_axis_z = bone_map[bone.name]
FnBone.update_bone_roll(bone, local_axis_x, local_axis_z)
bone.select = True
@staticmethod
def update_bone_roll(edit_bone: bpy.types.EditBone, mmd_local_axis_x, mmd_local_axis_z):
axes = FnBone.get_axes(mmd_local_axis_x, mmd_local_axis_z)
idx, val = max([(i, edit_bone.vector.dot(v)) for i, v in enumerate(axes)], key=lambda x: abs(x[1]))
edit_bone.align_roll(axes[(idx - 1) % 3 if val < 0 else (idx + 1) % 3])
@staticmethod
def get_axes(mmd_local_axis_x, mmd_local_axis_z):
x_axis = Vector(mmd_local_axis_x).normalized().xzy
z_axis = Vector(mmd_local_axis_z).normalized().xzy
y_axis = z_axis.cross(x_axis).normalized()
z_axis = x_axis.cross(y_axis).normalized() # correction
return (x_axis, y_axis, z_axis)
@staticmethod
def apply_auto_bone_roll(armature):
bone_names = []
for b in armature.pose.bones:
if not b.is_mmd_shadow_bone and not b.mmd_bone.enabled_local_axes and FnBone.has_auto_local_axis(b.mmd_bone.name_j):
bone_names.append(b.name)
with bpyutils.edit_object(armature) as data:
bone: bpy.types.EditBone
for bone in data.edit_bones:
if bone.name not in bone_names:
continue
FnBone.update_auto_bone_roll(bone)
bone.select = True
@staticmethod
def update_auto_bone_roll(edit_bone):
# make a triangle face (p1,p2,p3)
p1 = edit_bone.head.copy()
p2 = edit_bone.tail.copy()
p3 = p2.copy()
# translate p3 in xz plane
# the normal vector of the face tracks -Y direction
xz = Vector((p2.x - p1.x, p2.z - p1.z))
xz.normalize()
theta = math.atan2(xz.y, xz.x)
norm = edit_bone.vector.length
p3.z += norm * math.cos(theta)
p3.x -= norm * math.sin(theta)
# calculate the normal vector of the face
y = (p2 - p1).normalized()
z_tmp = (p3 - p1).normalized()
x = y.cross(z_tmp) # normal vector
# z = x.cross(y)
FnBone.update_bone_roll(edit_bone, y.xzy, x.xzy)
@staticmethod
def has_auto_local_axis(name_j):
if name_j:
if name_j in FnBone.AUTO_LOCAL_AXIS_ARMS or name_j in FnBone.AUTO_LOCAL_AXIS_SEMI_STANDARD_ARMS:
return True
for finger_name in FnBone.AUTO_LOCAL_AXIS_FINGERS:
if finger_name in name_j:
return True
return False
@staticmethod
def clean_additional_transformation(armature_object: bpy.types.Object):
# clean constraints
p_bone: bpy.types.PoseBone
for p_bone in armature_object.pose.bones:
p_bone.mmd_bone.is_additional_transform_dirty = True
constraints = p_bone.constraints
remove_constraint(constraints, "mmd_additional_rotation")
remove_constraint(constraints, "mmd_additional_location")
if remove_constraint(constraints, "mmd_additional_parent"):
p_bone.bone.use_inherit_rotation = True
# clean shadow bones
shadow_bone_types = {
"DUMMY",
"SHADOW",
"ADDITIONAL_TRANSFORM",
"ADDITIONAL_TRANSFORM_INVERT",
}
def __is_at_shadow_bone(b):
return b.is_mmd_shadow_bone and b.mmd_shadow_bone_type in shadow_bone_types
shadow_bone_names = [b.name for b in armature_object.pose.bones if __is_at_shadow_bone(b)]
if len(shadow_bone_names) > 0:
with bpyutils.edit_object(armature_object) as data:
remove_edit_bones(data.edit_bones, shadow_bone_names)
@staticmethod
def apply_additional_transformation(armature_object: bpy.types.Object):
def __is_dirty_bone(b):
if b.is_mmd_shadow_bone:
return False
mmd_bone = b.mmd_bone
if mmd_bone.has_additional_rotation or mmd_bone.has_additional_location:
return True
return mmd_bone.is_additional_transform_dirty
dirty_bones = [b for b in armature_object.pose.bones if __is_dirty_bone(b)]
# setup constraints
shadow_bone_pool = []
for p_bone in dirty_bones:
sb = FnBone.__setup_constraints(p_bone)
if sb:
shadow_bone_pool.append(sb)
# setup shadow bones
with bpyutils.edit_object(armature_object) as data:
edit_bones = data.edit_bones
for sb in shadow_bone_pool:
sb.update_edit_bones(edit_bones)
pose_bones = armature_object.pose.bones
for sb in shadow_bone_pool:
sb.update_pose_bones(pose_bones)
# finish
for p_bone in dirty_bones:
p_bone.mmd_bone.is_additional_transform_dirty = False
@staticmethod
def __setup_constraints(p_bone):
bone_name = p_bone.name
mmd_bone = p_bone.mmd_bone
influence = mmd_bone.additional_transform_influence
target_bone = mmd_bone.additional_transform_bone
mute_rotation = not mmd_bone.has_additional_rotation # or p_bone.is_in_ik_chain
mute_location = not mmd_bone.has_additional_location
constraints = p_bone.constraints
if not target_bone or (mute_rotation and mute_location) or influence == 0:
rot = remove_constraint(constraints, "mmd_additional_rotation")
loc = remove_constraint(constraints, "mmd_additional_location")
if rot or loc:
return _AT_ShadowBoneRemove(bone_name)
return None
shadow_bone = _AT_ShadowBoneCreate(bone_name, target_bone)
def __config(name, mute, map_type, value):
if mute:
remove_constraint(constraints, name)
return
c = TransformConstraintOp.create(constraints, name, map_type)
c.target = p_bone.id_data
shadow_bone.add_constraint(c)
TransformConstraintOp.update_min_max(c, value, influence)
__config("mmd_additional_rotation", mute_rotation, "ROTATION", math.pi)
__config("mmd_additional_location", mute_location, "LOCATION", 100)
return shadow_bone
@staticmethod
def update_additional_transform_influence(pose_bone: bpy.types.PoseBone):
influence = pose_bone.mmd_bone.additional_transform_influence
constraints = pose_bone.constraints
c = constraints.get("mmd_additional_rotation", None)
TransformConstraintOp.update_min_max(c, math.pi, influence)
c = constraints.get("mmd_additional_location", None)
TransformConstraintOp.update_min_max(c, 100, influence)
class MigrationFnBone:
"""Migration Functions for old MMD models broken by bugs or issues"""
@staticmethod
def fix_mmd_ik_limit_override(armature_object: bpy.types.Object):
pose_bone: bpy.types.PoseBone
for pose_bone in armature_object.pose.bones:
constraint: bpy.types.Constraint
for constraint in pose_bone.constraints:
if constraint.type == "LIMIT_ROTATION" and "mmd_ik_limit_override" in constraint.name:
constraint.owner_space = "LOCAL"
class _AT_ShadowBoneRemove:
def __init__(self, bone_name):
self.__shadow_bone_names = ("_dummy_" + bone_name, "_shadow_" + bone_name)
def update_edit_bones(self, edit_bones):
remove_edit_bones(edit_bones, self.__shadow_bone_names)
def update_pose_bones(self, pose_bones):
pass
class _AT_ShadowBoneCreate:
def __init__(self, bone_name, target_bone_name):
self.__dummy_bone_name = "_dummy_" + bone_name
self.__shadow_bone_name = "_shadow_" + bone_name
self.__bone_name = bone_name
self.__target_bone_name = target_bone_name
self.__constraint_pool = []
def __is_well_aligned(self, bone0, bone1):
return bone0.x_axis.dot(bone1.x_axis) > 0.99 and bone0.y_axis.dot(bone1.y_axis) > 0.99
def __update_constraints(self, use_shadow=True):
subtarget = self.__shadow_bone_name if use_shadow else self.__target_bone_name
for c in self.__constraint_pool:
c.subtarget = subtarget
def add_constraint(self, constraint):
self.__constraint_pool.append(constraint)
def update_edit_bones(self, edit_bones):
bone = edit_bones[self.__bone_name]
target_bone = edit_bones[self.__target_bone_name]
if bone != target_bone and self.__is_well_aligned(bone, target_bone):
_AT_ShadowBoneRemove(self.__bone_name).update_edit_bones(edit_bones)
return
dummy_bone_name = self.__dummy_bone_name
dummy = edit_bones.get(dummy_bone_name, None) or FnBone.set_edit_bone_to_dummy(edit_bones.new(name=dummy_bone_name))
dummy.parent = target_bone
dummy.head = target_bone.head
dummy.tail = dummy.head + bone.tail - bone.head
dummy.roll = bone.roll
shadow_bone_name = self.__shadow_bone_name
shadow = edit_bones.get(shadow_bone_name, None) or FnBone.set_edit_bone_to_shadow(edit_bones.new(name=shadow_bone_name))
shadow.parent = target_bone.parent
shadow.head = dummy.head
shadow.tail = dummy.tail
shadow.roll = bone.roll
def update_pose_bones(self, pose_bones):
if self.__shadow_bone_name not in pose_bones:
self.__update_constraints(use_shadow=False)
return
dummy_p_bone = pose_bones[self.__dummy_bone_name]
dummy_p_bone.is_mmd_shadow_bone = True
dummy_p_bone.mmd_shadow_bone_type = "DUMMY"
shadow_p_bone = pose_bones[self.__shadow_bone_name]
shadow_p_bone.is_mmd_shadow_bone = True
shadow_p_bone.mmd_shadow_bone_type = "SHADOW"
if "mmd_tools_at_dummy" not in shadow_p_bone.constraints:
c = shadow_p_bone.constraints.new("COPY_TRANSFORMS")
c.name = "mmd_tools_at_dummy"
c.target = dummy_p_bone.id_data
c.subtarget = dummy_p_bone.name
c.target_space = "POSE"
c.owner_space = "POSE"
self.__update_constraints()
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import math
from typing import Optional
import bpy
from ..bpyutils import FnContext, Props
class FnCamera:
@staticmethod
def find_root(obj: bpy.types.Object) -> Optional[bpy.types.Object]:
if obj is None:
return None
if FnCamera.is_mmd_camera_root(obj):
return obj
if obj.parent is not None and FnCamera.is_mmd_camera_root(obj.parent):
return obj.parent
return None
@staticmethod
def is_mmd_camera(obj: bpy.types.Object) -> bool:
return obj.type == "CAMERA" and FnCamera.find_root(obj.parent) is not None
@staticmethod
def is_mmd_camera_root(obj: bpy.types.Object) -> bool:
return obj.type == "EMPTY" and obj.mmd_type == "CAMERA"
@staticmethod
def add_drivers(camera_object: bpy.types.Object):
def __add_driver(id_data: bpy.types.ID, data_path: str, expression: str, index: int = -1):
d = id_data.driver_add(data_path, index).driver
d.type = "SCRIPTED"
if "$empty_distance" in expression:
v = d.variables.new()
v.name = "empty_distance"
v.type = "TRANSFORMS"
v.targets[0].id = camera_object
v.targets[0].transform_type = "LOC_Y"
v.targets[0].transform_space = "LOCAL_SPACE"
expression = expression.replace("$empty_distance", v.name)
if "$is_perspective" in expression:
v = d.variables.new()
v.name = "is_perspective"
v.type = "SINGLE_PROP"
v.targets[0].id_type = "OBJECT"
v.targets[0].id = camera_object.parent
v.targets[0].data_path = "mmd_camera.is_perspective"
expression = expression.replace("$is_perspective", v.name)
if "$angle" in expression:
v = d.variables.new()
v.name = "angle"
v.type = "SINGLE_PROP"
v.targets[0].id_type = "OBJECT"
v.targets[0].id = camera_object.parent
v.targets[0].data_path = "mmd_camera.angle"
expression = expression.replace("$angle", v.name)
if "$sensor_height" in expression:
v = d.variables.new()
v.name = "sensor_height"
v.type = "SINGLE_PROP"
v.targets[0].id_type = "CAMERA"
v.targets[0].id = camera_object.data
v.targets[0].data_path = "sensor_height"
expression = expression.replace("$sensor_height", v.name)
d.expression = expression
__add_driver(camera_object.data, "ortho_scale", "25*abs($empty_distance)/45")
__add_driver(camera_object, "rotation_euler", "pi if $is_perspective == False and $empty_distance > 1e-5 else 0", index=1)
__add_driver(camera_object.data, "type", "not $is_perspective")
__add_driver(camera_object.data, "lens", "$sensor_height/tan($angle/2)/2")
@staticmethod
def remove_drivers(camera_object: bpy.types.Object):
camera_object.data.driver_remove("ortho_scale")
camera_object.driver_remove("rotation_euler")
camera_object.data.driver_remove("ortho_scale")
camera_object.data.driver_remove("lens")
class MigrationFnCamera:
@staticmethod
def update_mmd_camera():
for camera_object in bpy.data.objects:
if camera_object.type != "CAMERA":
continue
root_object = FnCamera.find_root(camera_object)
if root_object is None:
# It's not a MMD Camera
continue
FnCamera.remove_drivers(camera_object)
FnCamera.add_drivers(camera_object)
class MMDCamera:
def __init__(self, obj):
root_object = FnCamera.find_root(obj)
if root_object is None:
raise ValueError("%s is not MMDCamera" % str(obj))
self.__emptyObj = getattr(root_object, "original", obj)
@staticmethod
def isMMDCamera(obj: bpy.types.Object) -> bool:
return FnCamera.find_root(obj) is not None
@staticmethod
def addDrivers(cameraObj: bpy.types.Object):
FnCamera.add_drivers(cameraObj)
@staticmethod
def removeDrivers(cameraObj: bpy.types.Object):
if cameraObj.type != "CAMERA":
return
FnCamera.remove_drivers(cameraObj)
@staticmethod
def convertToMMDCamera(cameraObj: bpy.types.Object, scale=1.0):
if FnCamera.is_mmd_camera(cameraObj):
return MMDCamera(cameraObj)
empty = bpy.data.objects.new(name="MMD_Camera", object_data=None)
FnContext.link_object(FnContext.ensure_context(), empty)
cameraObj.parent = empty
cameraObj.data.sensor_fit = "VERTICAL"
cameraObj.data.lens_unit = "MILLIMETERS" # MILLIMETERS, FOV
cameraObj.data.ortho_scale = 25 * scale
cameraObj.data.clip_end = 500 * scale
setattr(cameraObj.data, Props.display_size, 5 * scale)
cameraObj.location = (0, -45 * scale, 0)
cameraObj.rotation_mode = "XYZ"
cameraObj.rotation_euler = (math.radians(90), 0, 0)
cameraObj.lock_location = (True, False, True)
cameraObj.lock_rotation = (True, True, True)
cameraObj.lock_scale = (True, True, True)
cameraObj.data.dof.focus_object = empty
FnCamera.add_drivers(cameraObj)
empty.location = (0, 0, 10 * scale)
empty.rotation_mode = "YXZ"
setattr(empty, Props.empty_display_size, 5 * scale)
empty.lock_scale = (True, True, True)
empty.mmd_type = "CAMERA"
empty.mmd_camera.angle = math.radians(30)
empty.mmd_camera.persp = True
return MMDCamera(empty)
@staticmethod
def newMMDCameraAnimation(cameraObj, cameraTarget=None, scale=1.0, min_distance=0.1):
scene = bpy.context.scene
mmd_cam = bpy.data.objects.new(name="Camera", object_data=bpy.data.cameras.new("Camera"))
FnContext.link_object(FnContext.ensure_context(), mmd_cam)
MMDCamera.convertToMMDCamera(mmd_cam, scale=scale)
mmd_cam_root = mmd_cam.parent
_camera_override_func = None
if cameraObj is None:
if scene.camera is None:
scene.camera = mmd_cam
return MMDCamera(mmd_cam_root)
_camera_override_func = lambda: scene.camera
_target_override_func = None
if cameraTarget is None:
_target_override_func = lambda camObj: camObj.data.dof.focus_object or camObj
action_name = mmd_cam_root.name
parent_action = bpy.data.actions.new(name=action_name)
distance_action = bpy.data.actions.new(name=action_name + "_dis")
FnCamera.remove_drivers(mmd_cam)
from math import atan
from mathutils import Matrix, Vector
render = scene.render
factor = (render.resolution_y * render.pixel_aspect_y) / (render.resolution_x * render.pixel_aspect_x)
matrix_rotation = Matrix(([1, 0, 0, 0], [0, 0, 1, 0], [0, -1, 0, 0], [0, 0, 0, 1]))
neg_z_vector = Vector((0, 0, -1))
frame_start, frame_end, frame_current = scene.frame_start, scene.frame_end + 1, scene.frame_current
frame_count = frame_end - frame_start
frames = range(frame_start, frame_end)
fcurves = []
for i in range(3):
fcurves.append(parent_action.fcurves.new(data_path="location", index=i)) # x, y, z
for i in range(3):
fcurves.append(parent_action.fcurves.new(data_path="rotation_euler", index=i)) # rx, ry, rz
fcurves.append(parent_action.fcurves.new(data_path="mmd_camera.angle")) # fov
fcurves.append(parent_action.fcurves.new(data_path="mmd_camera.is_perspective")) # persp
fcurves.append(distance_action.fcurves.new(data_path="location", index=1)) # dis
for c in fcurves:
c.keyframe_points.add(frame_count)
for f, x, y, z, rx, ry, rz, fov, persp, dis in zip(frames, *(c.keyframe_points for c in fcurves)):
scene.frame_set(f)
if _camera_override_func:
cameraObj = _camera_override_func()
if _target_override_func:
cameraTarget = _target_override_func(cameraObj)
cam_matrix_world = cameraObj.matrix_world
cam_target_loc = cameraTarget.matrix_world.translation
cam_rotation = (cam_matrix_world @ matrix_rotation).to_euler(mmd_cam_root.rotation_mode)
cam_vec = cam_matrix_world.to_3x3() @ neg_z_vector
if cameraObj.data.type == "ORTHO":
cam_dis = -(9 / 5) * cameraObj.data.ortho_scale
if cameraObj.data.sensor_fit != "VERTICAL":
if cameraObj.data.sensor_fit == "HORIZONTAL":
cam_dis *= factor
else:
cam_dis *= min(1, factor)
else:
target_vec = cam_target_loc - cam_matrix_world.translation
cam_dis = -max(target_vec.length * cam_vec.dot(target_vec.normalized()), min_distance)
cam_target_loc = cam_matrix_world.translation - cam_vec * cam_dis
tan_val = cameraObj.data.sensor_height / cameraObj.data.lens / 2
if cameraObj.data.sensor_fit != "VERTICAL":
ratio = cameraObj.data.sensor_width / cameraObj.data.sensor_height
if cameraObj.data.sensor_fit == "HORIZONTAL":
tan_val *= factor * ratio
else: # cameraObj.data.sensor_fit == 'AUTO'
tan_val *= min(ratio, factor * ratio)
x.co, y.co, z.co = ((f, i) for i in cam_target_loc)
rx.co, ry.co, rz.co = ((f, i) for i in cam_rotation)
dis.co = (f, cam_dis)
fov.co = (f, 2 * atan(tan_val))
persp.co = (f, cameraObj.data.type != "ORTHO")
persp.interpolation = "CONSTANT"
for kp in (x, y, z, rx, ry, rz, fov, dis):
kp.interpolation = "LINEAR"
FnCamera.add_drivers(mmd_cam)
mmd_cam_root.animation_data_create().action = parent_action
mmd_cam.animation_data_create().action = distance_action
scene.frame_set(frame_current)
return MMDCamera(mmd_cam_root)
def object(self):
return self.__emptyObj
def camera(self):
for i in self.__emptyObj.children:
if i.type == "CAMERA":
return i
raise KeyError
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
class MaterialNotFoundError(KeyError):
"""Exception raised when a material is not found in the scene"""
def __init__(self, *args: object) -> None:
"""Constructor for MaterialNotFoundError"""
super().__init__(*args)
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import bpy
from ..bpyutils import FnContext, Props
class MMDLamp:
def __init__(self, obj):
if MMDLamp.isLamp(obj):
obj = obj.parent
if obj and obj.type == "EMPTY" and obj.mmd_type == "LIGHT":
self.__emptyObj = obj
else:
raise ValueError("%s is not MMDLamp" % str(obj))
@staticmethod
def isLamp(obj):
return obj and obj.type in {"LIGHT", "LAMP"}
@staticmethod
def isMMDLamp(obj):
if MMDLamp.isLamp(obj):
obj = obj.parent
return obj and obj.type == "EMPTY" and obj.mmd_type == "LIGHT"
@staticmethod
def convertToMMDLamp(lampObj, scale=1.0):
if MMDLamp.isMMDLamp(lampObj):
return MMDLamp(lampObj)
empty = bpy.data.objects.new(name="MMD_Light", object_data=None)
FnContext.link_object(FnContext.ensure_context(), empty)
empty.rotation_mode = "XYZ"
empty.lock_rotation = (True, True, True)
setattr(empty, Props.empty_display_size, 0.4)
empty.scale = [10 * scale] * 3
empty.mmd_type = "LIGHT"
empty.location = (0, 0, 11 * scale)
lampObj.parent = empty
lampObj.data.color = (0.602, 0.602, 0.602)
lampObj.location = (0.5, -0.5, 1.0)
lampObj.rotation_mode = "XYZ"
lampObj.rotation_euler = (0, 0, 0)
lampObj.lock_rotation = (True, True, True)
constraint = lampObj.constraints.new(type="TRACK_TO")
constraint.name = "mmd_lamp_track"
constraint.target = empty
constraint.track_axis = "TRACK_NEGATIVE_Z"
constraint.up_axis = "UP_Y"
return MMDLamp(empty)
def object(self):
return self.__emptyObj
def lamp(self):
for i in self.__emptyObj.children:
if MMDLamp.isLamp(i):
return i
raise KeyError
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import logging
import os
from typing import TYPE_CHECKING, Callable, Iterable, Optional, Tuple, cast
import bpy
from mathutils import Vector
from ..bpyutils import FnContext
from .exceptions import MaterialNotFoundError
from .shader import _NodeGroupUtils
if TYPE_CHECKING:
from ..properties.material import MMDMaterial
# TODO: use enum instead of constants
SPHERE_MODE_OFF = 0
SPHERE_MODE_MULT = 1
SPHERE_MODE_ADD = 2
SPHERE_MODE_SUBTEX = 3
class _DummyTexture:
def __init__(self, image):
self.type = "IMAGE"
self.image = image
self.use_mipmap = True
class _DummyTextureSlot:
def __init__(self, image):
self.diffuse_color_factor = 1
self.uv_layer = ""
self.texture = _DummyTexture(image)
class FnMaterial:
__NODES_ARE_READONLY: bool = False
def __init__(self, material: bpy.types.Material):
self.__material = material
self._nodes_are_readonly = FnMaterial.__NODES_ARE_READONLY
@staticmethod
def set_nodes_are_readonly(nodes_are_readonly: bool):
FnMaterial.__NODES_ARE_READONLY = nodes_are_readonly
@classmethod
def from_material_id(cls, material_id: str):
for material in bpy.data.materials:
if material.mmd_material.material_id == material_id:
return cls(material)
return None
@staticmethod
def clean_materials(obj, can_remove: Callable[[bpy.types.Material], bool]):
materials = obj.data.materials
materials_pop = materials.pop
for i in sorted((x for x, m in enumerate(materials) if can_remove(m)), reverse=True):
m = materials_pop(index=i)
if m.users < 1:
bpy.data.materials.remove(m)
@staticmethod
def swap_materials(mesh_object: bpy.types.Object, mat1_ref: str | int, mat2_ref: str | int, reverse=False, swap_slots=False) -> Tuple[bpy.types.Material, bpy.types.Material]:
"""
This method will assign the polygons of mat1 to mat2.
If reverse is True it will also swap the polygons assigned to mat2 to mat1.
The reference to materials can be indexes or names
Finally it will also swap the material slots if the option is given.
Args:
mesh_object (bpy.types.Object): The mesh object
mat1_ref (str | int): The reference to the first material
mat2_ref (str | int): The reference to the second material
reverse (bool, optional): If true it will also swap the polygons assigned to mat2 to mat1. Defaults to False.
swap_slots (bool, optional): If true it will also swap the material slots. Defaults to False.
Retruns:
Tuple[bpy.types.Material, bpy.types.Material]: The swapped materials
Raises:
MaterialNotFoundError: If one of the materials is not found
"""
mesh = cast(bpy.types.Mesh, mesh_object.data)
try:
# Try to find the materials
mat1 = mesh.materials[mat1_ref]
mat2 = mesh.materials[mat2_ref]
if None in (mat1, mat2):
raise MaterialNotFoundError()
except (KeyError, IndexError) as exc:
# Wrap exceptions within our custom ones
raise MaterialNotFoundError() from exc
mat1_idx = mesh.materials.find(mat1.name)
mat2_idx = mesh.materials.find(mat2.name)
# Swap polygons
for poly in mesh.polygons:
if poly.material_index == mat1_idx:
poly.material_index = mat2_idx
elif reverse and poly.material_index == mat2_idx:
poly.material_index = mat1_idx
# Swap slots if specified
if swap_slots:
mesh_object.material_slots[mat1_idx].material = mat2
mesh_object.material_slots[mat2_idx].material = mat1
return mat1, mat2
@staticmethod
def fixMaterialOrder(meshObj: bpy.types.Object, material_names: Iterable[str]):
"""
This method will fix the material order. Which is lost after joining meshes.
"""
materials = cast(bpy.types.Mesh, meshObj.data).materials
for new_idx, mat in enumerate(material_names):
# Get the material that is currently on this index
other_mat = materials[new_idx]
if other_mat.name == mat:
continue # This is already in place
FnMaterial.swap_materials(meshObj, mat, new_idx, reverse=True, swap_slots=True)
@property
def material_id(self):
mmd_mat: MMDMaterial = self.__material.mmd_material
if mmd_mat.material_id < 0:
max_id = -1
for mat in bpy.data.materials:
max_id = max(max_id, mat.mmd_material.material_id)
mmd_mat.material_id = max_id + 1
return mmd_mat.material_id
@property
def material(self):
return self.__material
def __same_image_file(self, image, filepath):
if image and image.source == "FILE":
# pylint: disable=assignment-from-no-return
img_filepath = bpy.path.abspath(image.filepath) # image.filepath_from_user()
if img_filepath == filepath:
return True
# pylint: disable=bare-except
try:
return os.path.samefile(img_filepath, filepath)
except:
pass
return False
def _load_image(self, filepath):
img = next((i for i in bpy.data.images if self.__same_image_file(i, filepath)), None)
if img is None:
# pylint: disable=bare-except
try:
img = bpy.data.images.load(filepath)
except:
logging.warning("Cannot create a texture for %s. No such file.", filepath)
img = bpy.data.images.new(os.path.basename(filepath), 1, 1)
img.source = "FILE"
img.filepath = filepath
use_alpha = img.depth == 32 and img.file_format != "BMP"
if hasattr(img, "use_alpha"):
img.use_alpha = use_alpha
elif not use_alpha:
img.alpha_mode = "NONE"
return img
def update_toon_texture(self):
if self._nodes_are_readonly:
return
mmd_mat: MMDMaterial = self.__material.mmd_material
if mmd_mat.is_shared_toon_texture:
shared_toon_folder = FnContext.get_addon_preferences_attribute(FnContext.ensure_context(), "shared_toon_folder", "")
toon_path = os.path.join(shared_toon_folder, "toon%02d.bmp" % (mmd_mat.shared_toon_texture + 1))
self.create_toon_texture(bpy.path.resolve_ncase(path=toon_path))
elif mmd_mat.toon_texture != "":
self.create_toon_texture(mmd_mat.toon_texture)
else:
self.remove_toon_texture()
def _mix_diffuse_and_ambient(self, mmd_mat):
r, g, b = mmd_mat.diffuse_color
ar, ag, ab = mmd_mat.ambient_color
return [min(1.0, 0.5 * r + ar), min(1.0, 0.5 * g + ag), min(1.0, 0.5 * b + ab)]
def update_drop_shadow(self):
pass
def update_enabled_toon_edge(self):
if self._nodes_are_readonly:
return
self.update_edge_color()
def update_edge_color(self):
if self._nodes_are_readonly:
return
mat = self.__material
mmd_mat: MMDMaterial = mat.mmd_material
color, alpha = mmd_mat.edge_color[:3], mmd_mat.edge_color[3]
line_color = color + (min(alpha, int(mmd_mat.enabled_toon_edge)),)
if hasattr(mat, "line_color"): # freestyle line color
mat.line_color = line_color
mat_edge: bpy.types.Material = bpy.data.materials.get("mmd_edge." + mat.name, None)
if mat_edge:
mat_edge.mmd_material.edge_color = line_color
if mat.name.startswith("mmd_edge.") and mat.node_tree:
mmd_mat.ambient_color, mmd_mat.alpha = color, alpha
node_shader = mat.node_tree.nodes.get("mmd_edge_preview", None)
if node_shader and "Color" in node_shader.inputs:
node_shader.inputs["Color"].default_value = mmd_mat.edge_color
if node_shader and "Alpha" in node_shader.inputs:
node_shader.inputs["Alpha"].default_value = alpha
def update_edge_weight(self):
pass
def get_texture(self):
return self.__get_texture_node("mmd_base_tex", use_dummy=True)
def create_texture(self, filepath):
texture = self.__create_texture_node("mmd_base_tex", filepath, (-4, -1))
return _DummyTextureSlot(texture.image)
def remove_texture(self):
if self._nodes_are_readonly:
return
self.__remove_texture_node("mmd_base_tex")
def get_sphere_texture(self):
return self.__get_texture_node("mmd_sphere_tex", use_dummy=True)
def use_sphere_texture(self, use_sphere, obj=None):
if self._nodes_are_readonly:
return
if use_sphere:
self.update_sphere_texture_type(obj)
else:
self.__update_shader_input("Sphere Tex Fac", 0)
def create_sphere_texture(self, filepath, obj=None):
texture = self.__create_texture_node("mmd_sphere_tex", filepath, (-2, -2))
self.update_sphere_texture_type(obj)
return _DummyTextureSlot(texture.image)
def update_sphere_texture_type(self, obj=None):
if self._nodes_are_readonly:
return
sphere_texture_type = int(self.material.mmd_material.sphere_texture_type)
is_sph_add = sphere_texture_type == 2
if sphere_texture_type not in (1, 2, 3):
self.__update_shader_input("Sphere Tex Fac", 0)
else:
self.__update_shader_input("Sphere Tex Fac", 1)
self.__update_shader_input("Sphere Mul/Add", is_sph_add)
self.__update_shader_input("Sphere Tex", (0, 0, 0, 1) if is_sph_add else (1, 1, 1, 1))
texture = self.__get_texture_node("mmd_sphere_tex")
if texture and (not texture.inputs["Vector"].is_linked or texture.inputs["Vector"].links[0].from_node.name == "mmd_tex_uv"):
if hasattr(texture, "color_space"):
texture.color_space = "NONE" if is_sph_add else "COLOR"
elif hasattr(texture.image, "colorspace_settings"):
texture.image.colorspace_settings.name = "Linear Rec.709" if is_sph_add else "sRGB"
mat = self.material
nodes, links = mat.node_tree.nodes, mat.node_tree.links
if sphere_texture_type == 3:
if obj and obj.type == "MESH" and mat in tuple(obj.data.materials):
uv_layers = (l for l in obj.data.uv_layers if not l.name.startswith("_"))
next(uv_layers, None) # skip base UV
subtex_uv = getattr(next(uv_layers, None), "name", "")
if subtex_uv != "UV1":
logging.info(' * material(%s): object "%s" use UV "%s" for SubTex', mat.name, obj.name, subtex_uv)
links.new(nodes["mmd_tex_uv"].outputs["SubTex UV"], texture.inputs["Vector"])
else:
links.new(nodes["mmd_tex_uv"].outputs["Sphere UV"], texture.inputs["Vector"])
def remove_sphere_texture(self):
if self._nodes_are_readonly:
return
self.__remove_texture_node("mmd_sphere_tex")
def get_toon_texture(self):
return self.__get_texture_node("mmd_toon_tex", use_dummy=True)
def use_toon_texture(self, use_toon):
if self._nodes_are_readonly:
return
self.__update_shader_input("Toon Tex Fac", use_toon)
def create_toon_texture(self, filepath):
texture = self.__create_texture_node("mmd_toon_tex", filepath, (-3, -1.5))
return _DummyTextureSlot(texture.image)
def remove_toon_texture(self):
if self._nodes_are_readonly:
return
self.__remove_texture_node("mmd_toon_tex")
def __get_texture_node(self, node_name, use_dummy=False):
mat = self.material
texture = getattr(mat.node_tree, "nodes", {}).get(node_name, None)
if isinstance(texture, bpy.types.ShaderNodeTexImage):
return _DummyTexture(texture.image) if use_dummy else texture
return None
def __remove_texture_node(self, node_name):
mat = self.material
texture = getattr(mat.node_tree, "nodes", {}).get(node_name, None)
if isinstance(texture, bpy.types.ShaderNodeTexImage):
mat.node_tree.nodes.remove(texture)
mat.update_tag()
def __create_texture_node(self, node_name, filepath, pos):
texture = self.__get_texture_node(node_name)
if texture is None:
from mathutils import Vector
self.__update_shader_nodes()
nodes = self.material.node_tree.nodes
texture = nodes.new("ShaderNodeTexImage")
# pylint: disable=assignment-from-no-return
texture.label = bpy.path.display_name(node_name)
texture.name = node_name
texture.location = nodes["mmd_shader"].location + Vector((pos[0] * 210, pos[1] * 220))
texture.image = self._load_image(filepath)
self.__update_shader_nodes()
return texture
def update_ambient_color(self):
if self._nodes_are_readonly:
return
mat = self.material
mmd_mat = mat.mmd_material
mat.diffuse_color[:3] = self._mix_diffuse_and_ambient(mmd_mat)
self.__update_shader_input("Ambient Color", mmd_mat.ambient_color[:] + (1,))
def update_diffuse_color(self):
if self._nodes_are_readonly:
return
mat = self.material
mmd_mat = mat.mmd_material
mat.diffuse_color[:3] = self._mix_diffuse_and_ambient(mmd_mat)
self.__update_shader_input("Diffuse Color", mmd_mat.diffuse_color[:] + (1,))
def update_alpha(self):
if self._nodes_are_readonly:
return
mat = self.material
mmd_mat = mat.mmd_material
if hasattr(mat, "blend_method"):
mat.blend_method = "HASHED" # 'BLEND'
# mat.show_transparent_back = False
elif hasattr(mat, "transparency_method"):
mat.use_transparency = True
mat.transparency_method = "Z_TRANSPARENCY"
mat.game_settings.alpha_blend = "ALPHA"
if hasattr(mat, "alpha"):
mat.alpha = mmd_mat.alpha
elif len(mat.diffuse_color) > 3:
mat.diffuse_color[3] = mmd_mat.alpha
self.__update_shader_input("Alpha", mmd_mat.alpha)
self.update_self_shadow_map()
def update_specular_color(self):
if self._nodes_are_readonly:
return
mat = self.material
mmd_mat = mat.mmd_material
mat.specular_color = mmd_mat.specular_color
self.__update_shader_input("Specular Color", mmd_mat.specular_color[:] + (1,))
def update_shininess(self):
if self._nodes_are_readonly:
return
mat = self.material
mmd_mat = mat.mmd_material
mat.roughness = 1 / pow(max(mmd_mat.shininess, 1), 0.37)
if hasattr(mat, "metallic"):
mat.metallic = pow(1 - mat.roughness, 2.7)
if hasattr(mat, "specular_hardness"):
mat.specular_hardness = mmd_mat.shininess
self.__update_shader_input("Reflect", mmd_mat.shininess)
def update_is_double_sided(self):
if self._nodes_are_readonly:
return
mat = self.material
mmd_mat = mat.mmd_material
if hasattr(mat, "game_settings"):
mat.game_settings.use_backface_culling = not mmd_mat.is_double_sided
elif hasattr(mat, "use_backface_culling"):
mat.use_backface_culling = not mmd_mat.is_double_sided
self.__update_shader_input("Double Sided", mmd_mat.is_double_sided)
def update_self_shadow_map(self):
if self._nodes_are_readonly:
return
mat = self.material
mmd_mat = mat.mmd_material
cast_shadows = mmd_mat.enabled_self_shadow_map if mmd_mat.alpha > 1e-3 else False
if hasattr(mat, "shadow_method"):
mat.shadow_method = "HASHED" if cast_shadows else "NONE"
def update_self_shadow(self):
if self._nodes_are_readonly:
return
mat = self.material
mmd_mat = mat.mmd_material
self.__update_shader_input("Self Shadow", mmd_mat.enabled_self_shadow)
@staticmethod
def convert_to_mmd_material(material, context=bpy.context):
m, mmd_material = material, material.mmd_material
if m.use_nodes and next((n for n in m.node_tree.nodes if n.name.startswith("mmd_")), None) is None:
def search_tex_image_node(node: bpy.types.ShaderNode):
if node.type == "TEX_IMAGE":
return node
for node_input in node.inputs:
if not node_input.is_linked:
continue
child = search_tex_image_node(node_input.links[0].from_node)
if child is not None:
return child
return None
if hasattr(context, "engine"):
active_render_engine = context.engine
else:
# use ALL anyway
active_render_engine = "ALL"
preferred_output_node_target = {
"CYCLES": "CYCLES",
"BLENDER_EEVEE_NEXT": "EEVEE",
}.get(active_render_engine, "ALL")
tex_node = None
for target in [preferred_output_node_target, "ALL"]:
output_node = m.node_tree.get_output_node(target)
if output_node is None:
continue
if not output_node.inputs[0].is_linked:
continue
tex_node = search_tex_image_node(output_node.inputs[0].links[0].from_node)
break
if tex_node is None:
tex_node = next((n for n in m.node_tree.nodes if n.bl_idname == "ShaderNodeTexImage"), None)
if tex_node:
tex_node.name = "mmd_base_tex"
else:
# Take the Base Color from BSDF if there's no texture
bsdf_node = next((n for n in m.node_tree.nodes if n.type.startswith('BSDF_')), None)
if bsdf_node:
base_color_input = bsdf_node.inputs.get('Base Color') or bsdf_node.inputs.get('Color')
if base_color_input:
mmd_material.diffuse_color = base_color_input.default_value[:3]
# ambient should be half the diffuse
mmd_material.ambient_color = [x * 0.5 for x in mmd_material.diffuse_color]
shadow_method = getattr(m, "shadow_method", None)
if mmd_material.diffuse_color is None:
mmd_material.diffuse_color = m.diffuse_color[:3]
if hasattr(m, "alpha"):
mmd_material.alpha = m.alpha
elif len(m.diffuse_color) > 3:
mmd_material.alpha = m.diffuse_color[3]
mmd_material.specular_color = m.specular_color
if hasattr(m, "specular_hardness"):
mmd_material.shininess = m.specular_hardness
else:
mmd_material.shininess = pow(1 / max(m.roughness, 0.099), 1 / 0.37)
if hasattr(m, "game_settings"):
mmd_material.is_double_sided = not m.game_settings.use_backface_culling
elif hasattr(m, "use_backface_culling"):
mmd_material.is_double_sided = not m.use_backface_culling
if shadow_method:
mmd_material.enabled_self_shadow_map = (shadow_method != "NONE") and mmd_material.alpha > 1e-3
mmd_material.enabled_self_shadow = shadow_method != "NONE"
# delete bsdf node if it's there
if m.use_nodes:
nodes_to_remove = [n for n in m.node_tree.nodes if n.type == 'BSDF_PRINCIPLED' or n.type.startswith('BSDF_')]
for n in nodes_to_remove:
m.node_tree.nodes.remove(n)
def __update_shader_input(self, name, val):
mat = self.material
if mat.name.startswith("mmd_"): # skip mmd_edge.*
return
self.__update_shader_nodes()
shader = mat.node_tree.nodes.get("mmd_shader", None)
if shader and name in shader.inputs:
interface_socket = shader.node_tree.interface.items_tree[name]
if hasattr(interface_socket, "min_value"):
val = min(max(val, interface_socket.min_value), interface_socket.max_value)
shader.inputs[name].default_value = val
def __update_shader_nodes(self):
mat = self.material
if mat.node_tree is None:
mat.use_nodes = True
mat.node_tree.nodes.clear()
nodes, links = mat.node_tree.nodes, mat.node_tree.links
class _Dummy:
default_value, is_linked = None, True
node_shader = nodes.get("mmd_shader", None)
if node_shader is None:
node_shader: bpy.types.ShaderNodeGroup = nodes.new("ShaderNodeGroup")
node_shader.name = "mmd_shader"
node_shader.location = (0, 1500)
node_shader.width = 200
node_shader.node_tree = self.__get_shader()
mmd_mat: MMDMaterial = mat.mmd_material
node_shader.inputs.get("Ambient Color", _Dummy).default_value = mmd_mat.ambient_color[:] + (1,)
node_shader.inputs.get("Diffuse Color", _Dummy).default_value = mmd_mat.diffuse_color[:] + (1,)
node_shader.inputs.get("Specular Color", _Dummy).default_value = mmd_mat.specular_color[:] + (1,)
node_shader.inputs.get("Reflect", _Dummy).default_value = mmd_mat.shininess
node_shader.inputs.get("Alpha", _Dummy).default_value = mmd_mat.alpha
node_shader.inputs.get("Double Sided", _Dummy).default_value = mmd_mat.is_double_sided
node_shader.inputs.get("Self Shadow", _Dummy).default_value = mmd_mat.enabled_self_shadow
self.update_sphere_texture_type()
node_uv = nodes.get("mmd_tex_uv", None)
if node_uv is None:
node_uv: bpy.types.ShaderNodeGroup = nodes.new("ShaderNodeGroup")
node_uv.name = "mmd_tex_uv"
node_uv.location = node_shader.location + Vector((-5 * 210, -2.5 * 220))
node_uv.node_tree = self.__get_shader_uv()
if not (node_shader.outputs["Shader"].is_linked or node_shader.outputs["Color"].is_linked or node_shader.outputs["Alpha"].is_linked):
node_output = next((n for n in nodes if isinstance(n, bpy.types.ShaderNodeOutputMaterial) and n.is_active_output), None)
if node_output is None:
node_output: bpy.types.ShaderNodeOutputMaterial = nodes.new("ShaderNodeOutputMaterial")
node_output.is_active_output = True
node_output.location = node_shader.location + Vector((400, 0))
links.new(node_shader.outputs["Shader"], node_output.inputs["Surface"])
for name_id in ("Base", "Toon", "Sphere"):
texture = self.__get_texture_node("mmd_%s_tex" % name_id.lower())
if texture:
name_tex_in, name_alpha_in, name_uv_out = (name_id + x for x in (" Tex", " Alpha", " UV"))
if not node_shader.inputs.get(name_tex_in, _Dummy).is_linked:
links.new(texture.outputs["Color"], node_shader.inputs[name_tex_in])
if not node_shader.inputs.get(name_alpha_in, _Dummy).is_linked:
links.new(texture.outputs["Alpha"], node_shader.inputs[name_alpha_in])
if not texture.inputs["Vector"].is_linked:
links.new(node_uv.outputs[name_uv_out], texture.inputs["Vector"])
def __get_shader_uv(self):
group_name = "MMDTexUV"
shader: bpy.types.ShaderNodeTree = bpy.data.node_groups.get(group_name, None) or bpy.data.node_groups.new(name=group_name, type="ShaderNodeTree")
if len(shader.nodes):
return shader
ng = _NodeGroupUtils(shader)
############################################################################
_node_output: bpy.types.NodeGroupOutput = ng.new_node("NodeGroupOutput", (6, 0))
tex_coord: bpy.types.ShaderNodeTexCoord = ng.new_node("ShaderNodeTexCoord", (0, 0))
tex_coord1: bpy.types.ShaderNodeUVMap = ng.new_node("ShaderNodeUVMap", (4, -2))
tex_coord1.uv_map = "UV1"
vec_trans: bpy.types.ShaderNodeVectorTransform = ng.new_node("ShaderNodeVectorTransform", (1, -1))
vec_trans.vector_type = "NORMAL"
vec_trans.convert_from = "OBJECT"
vec_trans.convert_to = "CAMERA"
node_vector: bpy.types.ShaderNodeMapping = ng.new_node("ShaderNodeMapping", (2, -1))
node_vector.vector_type = "POINT"
node_vector.inputs["Location"].default_value = (0.5, 0.5, 0.0)
node_vector.inputs["Scale"].default_value = (0.5, 0.5, 1.0)
links = ng.links
links.new(tex_coord.outputs["Normal"], vec_trans.inputs["Vector"])
links.new(vec_trans.outputs["Vector"], node_vector.inputs["Vector"])
ng.new_output_socket("Base UV", tex_coord.outputs["UV"])
ng.new_output_socket("Toon UV", node_vector.outputs["Vector"])
ng.new_output_socket("Sphere UV", node_vector.outputs["Vector"])
ng.new_output_socket("SubTex UV", tex_coord1.outputs["UV"])
return shader
def __get_shader(self):
group_name = "MMDShaderDev"
shader: bpy.types.ShaderNodeTree = bpy.data.node_groups.get(group_name, None) or bpy.data.node_groups.new(name=group_name, type="ShaderNodeTree")
if len(shader.nodes):
return shader
ng = _NodeGroupUtils(shader)
############################################################################
node_input: bpy.types.NodeGroupInput = ng.new_node("NodeGroupInput", (-5, -1))
_node_output: bpy.types.NodeGroupOutput = ng.new_node("NodeGroupOutput", (11, 1))
node_diffuse: bpy.types.ShaderNodeMath = ng.new_mix_node("ADD", (-3, 4), fac=0.6)
node_diffuse.use_clamp = True
node_tex: bpy.types.ShaderNodeMath = ng.new_mix_node("MULTIPLY", (-2, 3.5))
node_toon: bpy.types.ShaderNodeMath = ng.new_mix_node("MULTIPLY", (-1, 3))
node_sph: bpy.types.ShaderNodeMath = ng.new_mix_node("MULTIPLY", (0, 2.5))
node_spa: bpy.types.ShaderNodeMath = ng.new_mix_node("ADD", (0, 1.5))
node_sphere: bpy.types.ShaderNodeMath = ng.new_mix_node("MIX", (1, 1))
node_geo: bpy.types.ShaderNodeNewGeometry = ng.new_node("ShaderNodeNewGeometry", (6, 3.5))
node_invert: bpy.types.ShaderNodeMath = ng.new_math_node("LESS_THAN", (7, 3))
node_cull: bpy.types.ShaderNodeMath = ng.new_math_node("MAXIMUM", (8, 2.5))
node_alpha: bpy.types.ShaderNodeMath = ng.new_math_node("MINIMUM", (9, 2))
node_alpha.use_clamp = True
node_alpha_tex: bpy.types.ShaderNodeMath = ng.new_math_node("MULTIPLY", (-1, -2))
node_alpha_toon: bpy.types.ShaderNodeMath = ng.new_math_node("MULTIPLY", (0, -2.5))
node_alpha_sph: bpy.types.ShaderNodeMath = ng.new_math_node("MULTIPLY", (1, -3))
node_reflect: bpy.types.ShaderNodeMath = ng.new_math_node("DIVIDE", (7, -1.5), value1=1)
node_reflect.use_clamp = True
shader_diffuse: bpy.types.ShaderNodeBsdfDiffuse = ng.new_node("ShaderNodeBsdfDiffuse", (8, 0))
shader_glossy: bpy.types.ShaderNodeBsdfAnisotropic = ng.new_node("ShaderNodeBsdfAnisotropic", (8, -1))
shader_base_mix: bpy.types.ShaderNodeMixShader = ng.new_node("ShaderNodeMixShader", (9, 0))
shader_base_mix.inputs["Fac"].default_value = 0.02
shader_trans: bpy.types.ShaderNodeBsdfTransparent = ng.new_node("ShaderNodeBsdfTransparent", (9, 1))
shader_alpha_mix: bpy.types.ShaderNodeMixShader = ng.new_node("ShaderNodeMixShader", (10, 1))
links = ng.links
links.new(node_reflect.outputs["Value"], shader_glossy.inputs["Roughness"])
links.new(shader_diffuse.outputs["BSDF"], shader_base_mix.inputs[1])
links.new(shader_glossy.outputs["BSDF"], shader_base_mix.inputs[2])
links.new(node_diffuse.outputs["Color"], node_tex.inputs["Color1"])
links.new(node_tex.outputs["Color"], node_toon.inputs["Color1"])
links.new(node_toon.outputs["Color"], node_sph.inputs["Color1"])
links.new(node_toon.outputs["Color"], node_spa.inputs["Color1"])
links.new(node_sph.outputs["Color"], node_sphere.inputs["Color1"])
links.new(node_spa.outputs["Color"], node_sphere.inputs["Color2"])
links.new(node_sphere.outputs["Color"], shader_diffuse.inputs["Color"])
links.new(node_geo.outputs["Backfacing"], node_invert.inputs[0])
links.new(node_invert.outputs["Value"], node_cull.inputs[0])
links.new(node_cull.outputs["Value"], node_alpha.inputs[0])
links.new(node_alpha_tex.outputs["Value"], node_alpha_toon.inputs[0])
links.new(node_alpha_toon.outputs["Value"], node_alpha_sph.inputs[0])
links.new(node_alpha_sph.outputs["Value"], node_alpha.inputs[1])
links.new(node_alpha.outputs["Value"], shader_alpha_mix.inputs["Fac"])
links.new(shader_trans.outputs["BSDF"], shader_alpha_mix.inputs[1])
links.new(shader_base_mix.outputs["Shader"], shader_alpha_mix.inputs[2])
############################################################################
ng.new_input_socket("Ambient Color", node_diffuse.inputs["Color1"], (0.4, 0.4, 0.4, 1))
ng.new_input_socket("Diffuse Color", node_diffuse.inputs["Color2"], (0.8, 0.8, 0.8, 1))
# ↓ specular should be disabled by default
ng.new_input_socket("Specular Color", shader_glossy.inputs["Color"], (0.0, 0.0, 0.0, 1))
ng.new_input_socket("Reflect", node_reflect.inputs[1], 50, min_max=(1, 512))
ng.new_input_socket("Base Tex Fac", node_tex.inputs["Fac"], 1)
ng.new_input_socket("Base Tex", node_tex.inputs["Color2"], (1, 1, 1, 1))
ng.new_input_socket("Toon Tex Fac", node_toon.inputs["Fac"], 1)
ng.new_input_socket("Toon Tex", node_toon.inputs["Color2"], (1, 1, 1, 1))
ng.new_input_socket("Sphere Tex Fac", node_sph.inputs["Fac"], 1)
ng.new_input_socket("Sphere Tex", node_sph.inputs["Color2"], (1, 1, 1, 1))
ng.new_input_socket("Sphere Mul/Add", node_sphere.inputs["Fac"], 0)
ng.new_input_socket("Double Sided", node_cull.inputs[1], 0, min_max=(0, 1))
ng.new_input_socket("Alpha", node_alpha_tex.inputs[0], 1, min_max=(0, 1))
ng.new_input_socket("Base Alpha", node_alpha_tex.inputs[1], 1, min_max=(0, 1))
ng.new_input_socket("Toon Alpha", node_alpha_toon.inputs[1], 1, min_max=(0, 1))
ng.new_input_socket("Sphere Alpha", node_alpha_sph.inputs[1], 1, min_max=(0, 1))
links.new(node_input.outputs["Sphere Tex Fac"], node_spa.inputs["Fac"])
links.new(node_input.outputs["Sphere Tex"], node_spa.inputs["Color2"])
ng.new_output_socket("Shader", shader_alpha_mix.outputs["Shader"])
ng.new_output_socket("Color", node_sphere.outputs["Color"])
ng.new_output_socket("Alpha", node_alpha.outputs["Value"])
return shader
class MigrationFnMaterial:
@staticmethod
def update_mmd_shader():
mmd_shader_node_tree: Optional[bpy.types.NodeTree] = bpy.data.node_groups.get("MMDShaderDev")
if mmd_shader_node_tree is None:
return
ng = _NodeGroupUtils(mmd_shader_node_tree)
if "Color" in ng.node_output.inputs:
return
shader_diffuse: bpy.types.ShaderNodeBsdfDiffuse = [n for n in mmd_shader_node_tree.nodes if n.type == "BSDF_DIFFUSE"][0]
node_sphere: bpy.types.ShaderNodeMixRGB = shader_diffuse.inputs["Color"].links[0].from_node
node_output: bpy.types.NodeGroupOutput = ng.node_output
shader_alpha_mix: bpy.types.ShaderNodeMixShader = node_output.inputs["Shader"].links[0].from_node
node_alpha: bpy.types.ShaderNodeMath = shader_alpha_mix.inputs["Fac"].links[0].from_node
ng.new_output_socket("Color", node_sphere.outputs["Color"])
ng.new_output_socket("Alpha", node_alpha.outputs["Value"])
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import logging
import re
from typing import TYPE_CHECKING, Tuple, cast
import bpy
from .. import bpyutils, utils
from ..bpyutils import FnContext, FnObject, TransformConstraintOp
if TYPE_CHECKING:
from .model import Model
class FnMorph:
def __init__(self, morph, model: "Model"):
self.__morph = morph
self.__rig = model
@classmethod
def storeShapeKeyOrder(cls, obj, shape_key_names):
if len(shape_key_names) < 1:
return
assert FnContext.get_active_object(FnContext.ensure_context()) == obj
if obj.data.shape_keys is None:
bpy.ops.object.shape_key_add()
def __move_to_bottom(key_blocks, name):
obj.active_shape_key_index = key_blocks.find(name)
bpy.ops.object.shape_key_move(type="BOTTOM")
key_blocks = obj.data.shape_keys.key_blocks
for name in shape_key_names:
if name not in key_blocks:
obj.shape_key_add(name=name, from_mix=False)
elif len(key_blocks) > 1:
__move_to_bottom(key_blocks, name)
@classmethod
def fixShapeKeyOrder(cls, obj, shape_key_names):
if len(shape_key_names) < 1:
return
assert FnContext.get_active_object(FnContext.ensure_context()) == obj
key_blocks = getattr(obj.data.shape_keys, "key_blocks", None)
if key_blocks is None:
return
for name in shape_key_names:
idx = key_blocks.find(name)
if idx < 0:
continue
obj.active_shape_key_index = idx
bpy.ops.object.shape_key_move(type="BOTTOM")
@staticmethod
def get_morph_slider(rig):
return _MorphSlider(rig)
@staticmethod
def category_guess(morph):
name_lower = morph.name.lower()
if "mouth" in name_lower:
morph.category = "MOUTH"
elif "eye" in name_lower:
if "brow" in name_lower:
morph.category = "EYEBROW"
else:
morph.category = "EYE"
@classmethod
def load_morphs(cls, rig):
mmd_root = rig.rootObject().mmd_root
vertex_morphs = mmd_root.vertex_morphs
uv_morphs = mmd_root.uv_morphs
for obj in rig.meshes():
for kb in getattr(obj.data.shape_keys, "key_blocks", ())[1:]:
if not kb.name.startswith("mmd_") and kb.name not in vertex_morphs:
item = vertex_morphs.add()
item.name = kb.name
item.name_e = kb.name
cls.category_guess(item)
for g, name, x in FnMorph.get_uv_morph_vertex_groups(obj):
if name not in uv_morphs:
item = uv_morphs.add()
item.name = item.name_e = name
item.data_type = "VERTEX_GROUP"
cls.category_guess(item)
@staticmethod
def remove_shape_key(mesh_object: bpy.types.Object, shape_key_name: str):
assert isinstance(mesh_object.data, bpy.types.Mesh)
shape_keys = mesh_object.data.shape_keys
if shape_keys is None:
return
key_blocks = shape_keys.key_blocks
if key_blocks and shape_key_name in key_blocks:
FnObject.mesh_remove_shape_key(mesh_object, key_blocks[shape_key_name])
@staticmethod
def copy_shape_key(mesh_object: bpy.types.Object, src_name: str, dest_name: str):
assert isinstance(mesh_object.data, bpy.types.Mesh)
shape_keys = mesh_object.data.shape_keys
if shape_keys is None:
return
key_blocks = shape_keys.key_blocks
if src_name not in key_blocks:
return
if dest_name in key_blocks:
FnObject.mesh_remove_shape_key(mesh_object, key_blocks[dest_name])
mesh_object.active_shape_key_index = key_blocks.find(src_name)
mesh_object.show_only_shape_key, last = True, mesh_object.show_only_shape_key
mesh_object.shape_key_add(name=dest_name, from_mix=True)
mesh_object.show_only_shape_key = last
mesh_object.active_shape_key_index = key_blocks.find(dest_name)
@staticmethod
def get_uv_morph_vertex_groups(obj, morph_name=None, offset_axes="XYZW"):
pattern = "UV_%s[+-][%s]$" % (morph_name or ".{1,}", offset_axes or "XYZW")
# yield (vertex_group, morph_name, axis),...
return ((g, g.name[3:-2], g.name[-2:]) for g in obj.vertex_groups if re.match(pattern, g.name))
@staticmethod
def copy_uv_morph_vertex_groups(obj, src_name, dest_name):
for vg, n, x in FnMorph.get_uv_morph_vertex_groups(obj, dest_name):
obj.vertex_groups.remove(vg)
for vg_name in tuple(i[0].name for i in FnMorph.get_uv_morph_vertex_groups(obj, src_name)):
obj.vertex_groups.active = obj.vertex_groups[vg_name]
with bpy.context.temp_override(object=obj, window=bpy.context.window, region=bpy.context.region):
bpy.ops.object.vertex_group_copy()
obj.vertex_groups.active.name = vg_name.replace(src_name, dest_name)
@staticmethod
def overwrite_bone_morphs_from_action_pose(armature_object):
armature = armature_object.id_data
# Use animation_data and action instead of action_pose
if armature.animation_data is None or armature.animation_data.action is None:
logging.warning('[WARNING] armature "%s" has no animation data or action', armature_object.name)
return
action = armature.animation_data.action
pose_markers = action.pose_markers
if not pose_markers:
return
root = armature_object.parent
mmd_root = root.mmd_root
bone_morphs = mmd_root.bone_morphs
utils.selectAObject(armature_object)
original_mode = bpy.context.object.mode
bpy.ops.object.mode_set(mode="POSE")
try:
for index, pose_marker in enumerate(pose_markers):
bone_morph = next(iter([m for m in bone_morphs if m.name == pose_marker.name]), None)
if bone_morph is None:
bone_morph = bone_morphs.add()
bone_morph.name = pose_marker.name
bpy.ops.pose.select_all(action="SELECT")
bpy.ops.pose.transforms_clear()
frame = pose_marker.frame
bpy.context.scene.frame_set(int(frame))
mmd_root.active_morph = bone_morphs.find(bone_morph.name)
bpy.ops.mmd_tools.apply_bone_morph()
bpy.ops.pose.transforms_clear()
finally:
bpy.ops.object.mode_set(mode=original_mode)
utils.selectAObject(root)
@staticmethod
def clean_uv_morph_vertex_groups(obj):
# remove empty vertex groups of uv morphs
vg_indices = {g.index for g, n, x in FnMorph.get_uv_morph_vertex_groups(obj)}
vertex_groups = obj.vertex_groups
for v in obj.data.vertices:
for x in v.groups:
if x.group in vg_indices and x.weight > 0:
vg_indices.remove(x.group)
for i in sorted(vg_indices, reverse=True):
vg = vertex_groups[i]
m = obj.modifiers.get("mmd_bind%s" % hash(vg.name), None)
if m:
obj.modifiers.remove(m)
vertex_groups.remove(vg)
@staticmethod
def get_uv_morph_offset_map(obj, morph):
offset_map = {} # offset_map[vertex_index] = offset_xyzw
if morph.data_type == "VERTEX_GROUP":
scale = morph.vertex_group_scale
axis_map = {g.index: x for g, n, x in FnMorph.get_uv_morph_vertex_groups(obj, morph.name)}
for v in obj.data.vertices:
i = v.index
for x in v.groups:
if x.group in axis_map and x.weight > 0:
axis, weight = axis_map[x.group], x.weight
d = offset_map.setdefault(i, [0, 0, 0, 0])
d["XYZW".index(axis[1])] += -weight * scale if axis[0] == "-" else weight * scale
else:
for val in morph.data:
i = val.index
if i in offset_map:
offset_map[i] = [a + b for a, b in zip(offset_map[i], val.offset)]
else:
offset_map[i] = val.offset
return offset_map
@staticmethod
def store_uv_morph_data(obj, morph, offsets=None, offset_axes="XYZW"):
vertex_groups = obj.vertex_groups
morph_name = getattr(morph, "name", None)
if offset_axes:
for vg, n, x in FnMorph.get_uv_morph_vertex_groups(obj, morph_name, offset_axes):
vertex_groups.remove(vg)
if not morph_name or not offsets:
return
axis_indices = tuple("XYZW".index(x) for x in offset_axes) or tuple(range(4))
offset_map = FnMorph.get_uv_morph_offset_map(obj, morph) if offset_axes else {}
for data in offsets:
idx, offset = data.index, data.offset
for i in axis_indices:
offset_map.setdefault(idx, [0, 0, 0, 0])[i] += round(offset[i], 5)
max_value = max(max(abs(x) for x in v) for v in offset_map.values() or ([0],))
scale = morph.vertex_group_scale = max(abs(morph.vertex_group_scale), max_value)
for idx, offset in offset_map.items():
for val, axis in zip(offset, "XYZW"):
if abs(val) > 1e-4:
vg_name = "UV_{0}{1}{2}".format(morph_name, "-" if val < 0 else "+", axis)
vg = vertex_groups.get(vg_name, None) or vertex_groups.new(name=vg_name)
vg.add(index=[idx], weight=abs(val) / scale, type="REPLACE")
def update_mat_related_mesh(self, new_mesh=None):
for offset in self.__morph.data:
# Use the new_mesh if provided
meshObj = new_mesh
if new_mesh is None:
# Try to find the mesh by material name
meshObj = self.__rig.findMesh(offset.material)
if meshObj is None:
# Given this point we need to loop through all the meshes
for mesh in self.__rig.meshes():
if mesh.data.materials.find(offset.material) >= 0:
meshObj = mesh
break
# Finally update the reference
if meshObj is not None:
offset.related_mesh = meshObj.data.name
@staticmethod
def clean_duplicated_material_morphs(mmd_root_object: bpy.types.Object):
"""Clean duplicated material_morphs and data from mmd_root_object.mmd_root.material_morphs[].data[]"""
mmd_root = mmd_root_object.mmd_root
def morph_data_equals(l, r) -> bool:
return (
l.related_mesh_data == r.related_mesh_data
and l.offset_type == r.offset_type
and l.material == r.material
and all(a == b for a, b in zip(l.diffuse_color, r.diffuse_color))
and all(a == b for a, b in zip(l.specular_color, r.specular_color))
and l.shininess == r.shininess
and all(a == b for a, b in zip(l.ambient_color, r.ambient_color))
and all(a == b for a, b in zip(l.edge_color, r.edge_color))
and l.edge_weight == r.edge_weight
and all(a == b for a, b in zip(l.texture_factor, r.texture_factor))
and all(a == b for a, b in zip(l.sphere_texture_factor, r.sphere_texture_factor))
and all(a == b for a, b in zip(l.toon_texture_factor, r.toon_texture_factor))
)
def morph_equals(l, r) -> bool:
return len(l.data) == len(r.data) and all(morph_data_equals(a, b) for a, b in zip(l.data, r.data))
# Remove duplicated mmd_root.material_morphs.data[]
for material_morph in mmd_root.material_morphs:
save_materil_morph_datas = []
remove_material_morph_data_indices = []
for index, material_morph_data in enumerate(material_morph.data):
if any(morph_data_equals(material_morph_data, saved_material_morph_data) for saved_material_morph_data in save_materil_morph_datas):
remove_material_morph_data_indices.append(index)
continue
save_materil_morph_datas.append(material_morph_data)
for index in reversed(remove_material_morph_data_indices):
material_morph.data.remove(index)
# Mark duplicated mmd_root.material_morphs[]
save_material_morphs = []
remove_material_morph_names = []
for material_morph in sorted(mmd_root.material_morphs, key=lambda m: m.name):
if any(morph_equals(material_morph, saved_material_morph) for saved_material_morph in save_material_morphs):
remove_material_morph_names.append(material_morph.name)
continue
save_material_morphs.append(material_morph)
# Remove marked mmd_root.material_morphs[]
for material_morph_name in remove_material_morph_names:
mmd_root.material_morphs.remove(mmd_root.material_morphs.find(material_morph_name))
class _MorphSlider:
def __init__(self, model: "Model"):
self.__rig = model
def placeholder(self, create=False, binded=False):
rig = self.__rig
root = rig.rootObject()
obj = next((x for x in root.children if x.mmd_type == "PLACEHOLDER" and x.type == "MESH"), None)
if create and obj is None:
obj = bpy.data.objects.new(name=".placeholder", object_data=bpy.data.meshes.new(".placeholder"))
obj.mmd_type = "PLACEHOLDER"
obj.parent = root
FnContext.link_object(FnContext.ensure_context(), obj)
if obj and obj.data.shape_keys is None:
key = obj.shape_key_add(name="--- morph sliders ---")
key.mute = True
obj.active_shape_key_index = 0
if binded and obj and obj.data.shape_keys.key_blocks[0].mute:
return None
return obj
@property
def dummy_armature(self):
obj = self.placeholder()
return self.__dummy_armature(obj) if obj else None
def __dummy_armature(self, obj, create=False):
arm = next((x for x in obj.children if x.mmd_type == "PLACEHOLDER" and x.type == "ARMATURE"), None)
if create and arm is None:
arm = bpy.data.objects.new(name=".dummy_armature", object_data=bpy.data.armatures.new(name=".dummy_armature"))
arm.mmd_type = "PLACEHOLDER"
arm.parent = obj
FnContext.link_object(FnContext.ensure_context(), arm)
from .bone import FnBone
FnBone.setup_special_bone_collections(arm)
return arm
def get(self, morph_name):
obj = self.placeholder()
if obj is None:
return None
key_blocks = obj.data.shape_keys.key_blocks
if key_blocks[0].mute:
return None
return key_blocks.get(morph_name, None)
def create(self):
self.__rig.loadMorphs()
obj = self.placeholder(create=True)
self.__load(obj, self.__rig.rootObject().mmd_root)
return obj
def __load(self, obj, mmd_root):
attr_list = ("group", "vertex", "bone", "uv", "material")
morph_sliders = obj.data.shape_keys.key_blocks
for m in (x for attr in attr_list for x in getattr(mmd_root, attr + "_morphs", ())):
name = m.name
# if name[-1] == '\\': # fix driver's bug???
# m.name = name = name + ' '
if name and name not in morph_sliders:
obj.shape_key_add(name=name, from_mix=False)
@staticmethod
def __driver_variables(id_data, path, index=-1):
d = id_data.driver_add(path, index)
variables = d.driver.variables
for x in variables:
variables.remove(x)
return d.driver, variables
@staticmethod
def __add_single_prop(variables, id_obj, data_path, prefix):
var = variables.new()
var.name = f"{prefix}{len(variables)}"
var.type = "SINGLE_PROP"
target = var.targets[0]
target.id_type = "OBJECT"
target.id = id_obj
target.data_path = data_path
return var
@staticmethod
def __shape_key_driver_check(key_block, resolve_path=False):
if resolve_path:
try:
key_block.id_data.path_resolve(key_block.path_from_id())
except ValueError:
return False
if not key_block.id_data.animation_data:
return True
d = key_block.id_data.animation_data.drivers.find(key_block.path_from_id("value"))
if isinstance(d, int): # for Blender 2.76 or older
data_path = key_block.path_from_id("value")
d = next((i for i in key_block.id_data.animation_data.drivers if i.data_path == data_path), None)
return not d or d.driver.expression == "".join(("*w", "+g", "v")[-1 if i < 1 else i % 2] + str(i + 1) for i in range(len(d.driver.variables)))
def __cleanup(self, names_in_use=None):
from math import ceil, floor
names_in_use = names_in_use or {}
rig = self.__rig
morph_sliders = self.placeholder()
morph_sliders = morph_sliders.data.shape_keys.key_blocks if morph_sliders else {}
for mesh_object in rig.meshes():
for kb in getattr(mesh_object.data.shape_keys, "key_blocks", cast(Tuple[bpy.types.ShapeKey], ())):
if kb.name in names_in_use:
continue
if kb.name.startswith("mmd_bind"):
kb.driver_remove("value")
ms = morph_sliders[kb.relative_key.name]
kb.relative_key.slider_min, kb.relative_key.slider_max = min(ms.slider_min, floor(ms.value)), max(ms.slider_max, ceil(ms.value))
kb.relative_key.value = ms.value
kb.relative_key.mute = False
FnObject.mesh_remove_shape_key(mesh_object, kb)
elif kb.name in morph_sliders and self.__shape_key_driver_check(kb):
ms = morph_sliders[kb.name]
kb.driver_remove("value")
kb.slider_min, kb.slider_max = min(ms.slider_min, floor(kb.value)), max(ms.slider_max, ceil(kb.value))
for m in mesh_object.modifiers: # uv morph
if m.name.startswith("mmd_bind") and m.name not in names_in_use:
mesh_object.modifiers.remove(m)
from .shader import _MaterialMorph
for m in rig.materials():
if m and m.node_tree:
for n in sorted((x for x in m.node_tree.nodes if x.name.startswith("mmd_bind")), key=lambda x: -x.location[0]):
_MaterialMorph.reset_morph_links(n)
m.node_tree.nodes.remove(n)
attributes = set(TransformConstraintOp.min_max_attributes("LOCATION", "to"))
attributes |= set(TransformConstraintOp.min_max_attributes("ROTATION", "to"))
for b in rig.armature().pose.bones:
for c in b.constraints:
if c.name.startswith("mmd_bind") and c.name[:-4] not in names_in_use:
for attr in attributes:
c.driver_remove(attr)
b.constraints.remove(c)
def unbind(self):
mmd_root = self.__rig.rootObject().mmd_root
# after unbind, the weird lag problem will disappear.
mmd_root.morph_panel_show_settings = True
for m in mmd_root.bone_morphs:
for d in m.data:
d.name = ""
for m in mmd_root.material_morphs:
for d in m.data:
d.name = ""
obj = self.placeholder()
if obj:
obj.data.shape_keys.key_blocks[0].mute = True
arm = self.__dummy_armature(obj)
if arm:
for b in arm.pose.bones:
if b.name.startswith("mmd_bind"):
b.driver_remove("location")
b.driver_remove("rotation_quaternion")
self.__cleanup()
def bind(self):
rig = self.__rig
root = rig.rootObject()
armObj = rig.armature()
mmd_root = root.mmd_root
# hide detail to avoid weird lag problem
mmd_root.morph_panel_show_settings = False
obj = self.create()
arm = self.__dummy_armature(obj, create=True)
morph_sliders = obj.data.shape_keys.key_blocks
# data gathering
group_map = {}
shape_key_map = {}
uv_morph_map = {}
for mesh_object in rig.meshes():
mesh_object.show_only_shape_key = False
key_blocks = getattr(mesh_object.data.shape_keys, "key_blocks", ())
for kb in key_blocks:
kb_name = kb.name
if kb_name not in morph_sliders:
continue
if self.__shape_key_driver_check(kb, resolve_path=True):
name_bind, kb_bind = kb_name, kb
else:
name_bind = "mmd_bind%s" % hash(morph_sliders[kb_name])
if name_bind not in key_blocks:
mesh_object.shape_key_add(name=name_bind, from_mix=False)
kb_bind = key_blocks[name_bind]
kb_bind.relative_key = kb
kb_bind.slider_min = -10
kb_bind.slider_max = 10
data_path = 'data.shape_keys.key_blocks["%s"].value' % kb_name.replace('"', '\\"')
groups = []
shape_key_map.setdefault(name_bind, []).append((kb_bind, data_path, groups))
group_map.setdefault(("vertex_morphs", kb_name), []).append(groups)
uv_layers = [l.name for l in mesh_object.data.uv_layers if not l.name.startswith("_")]
uv_layers += [""] * (5 - len(uv_layers))
for vg, morph_name, axis in FnMorph.get_uv_morph_vertex_groups(mesh_object):
morph = mmd_root.uv_morphs.get(morph_name, None)
if morph is None or morph.data_type != "VERTEX_GROUP":
continue
uv_layer = "_" + uv_layers[morph.uv_index] if axis[1] in "ZW" else uv_layers[morph.uv_index]
if uv_layer not in mesh_object.data.uv_layers:
continue
name_bind = "mmd_bind%s" % hash(vg.name)
uv_morph_map.setdefault(name_bind, ())
mod = mesh_object.modifiers.get(name_bind, None) or mesh_object.modifiers.new(name=name_bind, type="UV_WARP")
mod.show_expanded = False
mod.vertex_group = vg.name
mod.axis_u, mod.axis_v = ("Y", "X") if axis[1] in "YW" else ("X", "Y")
mod.uv_layer = uv_layer
name_bind = "mmd_bind%s" % hash(morph_name)
mod.object_from = mod.object_to = arm
if axis[0] == "-":
mod.bone_from, mod.bone_to = "mmd_bind_ctrl_base", name_bind
else:
mod.bone_from, mod.bone_to = name_bind, "mmd_bind_ctrl_base"
bone_offset_map = {}
with bpyutils.edit_object(arm) as data:
from .bone import FnBone
edit_bones = data.edit_bones
def __get_bone(name, parent):
b = edit_bones.get(name, None) or edit_bones.new(name=name)
b.head = (0, 0, 0)
b.tail = (0, 0, 1)
b.use_deform = False
b.parent = parent
return b
for m in mmd_root.bone_morphs:
morph_name = m.name.replace('"', '\\"')
data_path = f'data.shape_keys.key_blocks["{morph_name}"].value'
for d in m.data:
if not d.bone:
d.name = ""
continue
d.name = name_bind = f"mmd_bind{hash(d)}"
b = FnBone.set_edit_bone_to_shadow(__get_bone(name_bind, None))
groups = []
bone_offset_map[name_bind] = (m.name, d, b.name, data_path, groups)
group_map.setdefault(("bone_morphs", m.name), []).append(groups)
ctrl_base = FnBone.set_edit_bone_to_dummy(__get_bone("mmd_bind_ctrl_base", None))
for m in mmd_root.uv_morphs:
morph_name = m.name.replace('"', '\\"')
data_path = f'data.shape_keys.key_blocks["{morph_name}"].value'
scale_path = f'mmd_root.uv_morphs["{morph_name}"].vertex_group_scale'
name_bind = f"mmd_bind{hash(m.name)}"
b = FnBone.set_edit_bone_to_dummy(__get_bone(name_bind, ctrl_base))
groups = []
uv_morph_map.setdefault(name_bind, []).append((b.name, data_path, scale_path, groups))
group_map.setdefault(("uv_morphs", m.name), []).append(groups)
used_bone_names = bone_offset_map.keys() | uv_morph_map.keys()
used_bone_names.add(ctrl_base.name)
for b in edit_bones: # cleanup
if b.name.startswith("mmd_bind") and b.name not in used_bone_names:
edit_bones.remove(b)
material_offset_map = {}
for m in mmd_root.material_morphs:
morph_name = m.name.replace('"', '\\"')
data_path = f'data.shape_keys.key_blocks["{morph_name}"].value'
groups = []
group_map.setdefault(("material_morphs", m.name), []).append(groups)
material_offset_map.setdefault("group_dict", {})[m.name] = (data_path, groups)
for d in m.data:
d.name = name_bind = f"mmd_bind{hash(d)}"
# add '#' before material name to avoid conflict with group_dict
table = material_offset_map.setdefault("#" + d.material, ([], []))
table[1 if d.offset_type == "ADD" else 0].append((m.name, d, name_bind))
for m in mmd_root.group_morphs:
if len(m.data) != len(set(m.data.keys())):
logging.warning(' * Found duplicated morph data in Group Morph "%s"', m.name)
morph_name = m.name.replace('"', '\\"')
morph_path = f'data.shape_keys.key_blocks["{morph_name}"].value'
for d in m.data:
data_name = d.name.replace('"', '\\"')
factor_path = f'mmd_root.group_morphs["{morph_name}"].data["{data_name}"].factor'
for groups in group_map.get((d.morph_type, d.name), ()):
groups.append((m.name, morph_path, factor_path))
self.__cleanup(shape_key_map.keys() | bone_offset_map.keys() | uv_morph_map.keys())
def __config_groups(variables, expression, groups):
for g_name, morph_path, factor_path in groups:
var = self.__add_single_prop(variables, obj, morph_path, "g")
fvar = self.__add_single_prop(variables, root, factor_path, "w")
expression = f"{expression}+{var.name}*{fvar.name}"
return expression
# vertex morphs
for kb_bind, morph_data_path, groups in (i for l in shape_key_map.values() for i in l):
driver, variables = self.__driver_variables(kb_bind, "value")
var = self.__add_single_prop(variables, obj, morph_data_path, "v")
if kb_bind.name.startswith("mmd_bind"):
driver.expression = f"-({__config_groups(variables, var.name, groups)})"
kb_bind.relative_key.mute = True
else:
driver.expression = __config_groups(variables, var.name, groups)
kb_bind.mute = False
# bone morphs
def __config_bone_morph(constraints, map_type, attributes, val, val_str):
c_name = f"mmd_bind{hash(data)}.{map_type[:3]}"
c = TransformConstraintOp.create(constraints, c_name, map_type)
TransformConstraintOp.update_min_max(c, val, None)
c.show_expanded = False
c.target = arm
c.subtarget = bname
for attr in attributes:
driver, variables = self.__driver_variables(armObj, c.path_from_id(attr))
var = self.__add_single_prop(variables, obj, morph_data_path, "b")
expression = __config_groups(variables, var.name, groups)
sign = "-" if attr.startswith("to_min") else ""
driver.expression = f"{sign}{val_str}*({expression})"
from math import pi
attributes_rot = TransformConstraintOp.min_max_attributes("ROTATION", "to")
attributes_loc = TransformConstraintOp.min_max_attributes("LOCATION", "to")
for morph_name, data, bname, morph_data_path, groups in bone_offset_map.values():
b = arm.pose.bones[bname]
b.location = data.location
b.rotation_quaternion = data.rotation.__class__(*data.rotation.to_axis_angle()) # Fix for consistency
b.is_mmd_shadow_bone = True
b.mmd_shadow_bone_type = "BIND"
pb = armObj.pose.bones[data.bone]
__config_bone_morph(pb.constraints, "ROTATION", attributes_rot, pi, "pi")
__config_bone_morph(pb.constraints, "LOCATION", attributes_loc, 100, "100")
# uv morphs
# HACK: workaround for Blender 2.80+, data_path can't be properly detected (Save & Reopen file also works)
root.parent, root.parent, root.matrix_parent_inverse = arm, root.parent, root.matrix_parent_inverse.copy()
b = arm.pose.bones["mmd_bind_ctrl_base"]
b.is_mmd_shadow_bone = True
b.mmd_shadow_bone_type = "BIND"
for bname, data_path, scale_path, groups in (i for l in uv_morph_map.values() for i in l):
b = arm.pose.bones[bname]
b.is_mmd_shadow_bone = True
b.mmd_shadow_bone_type = "BIND"
driver, variables = self.__driver_variables(b, "location", index=0)
var = self.__add_single_prop(variables, obj, data_path, "u")
fvar = self.__add_single_prop(variables, root, scale_path, "s")
driver.expression = f"({__config_groups(variables, var.name, groups)})*{fvar.name}"
# material morphs
from .shader import _MaterialMorph
group_dict = material_offset_map.get("group_dict", {})
def __config_material_morph(mat, morph_list):
nodes = _MaterialMorph.setup_morph_nodes(mat, tuple(x[1] for x in morph_list))
for (morph_name, data, name_bind), node in zip(morph_list, nodes):
node.label, node.name = morph_name, name_bind
data_path, groups = group_dict[morph_name]
driver, variables = self.__driver_variables(mat.node_tree, node.inputs[0].path_from_id("default_value"))
var = self.__add_single_prop(variables, obj, data_path, "m")
driver.expression = "%s" % __config_groups(variables, var.name, groups)
for mat in (m for m in rig.materials() if m and m.use_nodes and not m.name.startswith("mmd_")):
mul_all, add_all = material_offset_map.get("#", ([], []))
if mat.name == "":
logging.warning("Oh no. The material name should never empty.")
mul_list, add_list = [], []
else:
mat_name = "#" + mat.name
mul_list, add_list = material_offset_map.get(mat_name, ([], []))
morph_list = tuple(mul_all + mul_list + add_all + add_list)
__config_material_morph(mat, morph_list)
mat_edge = bpy.data.materials.get("mmd_edge." + mat.name, None)
if mat_edge:
__config_material_morph(mat_edge, morph_list)
morph_sliders[0].mute = False
class MigrationFnMorph:
@staticmethod
def update_mmd_morph():
from .material import FnMaterial
for root in bpy.data.objects:
if root.mmd_type != "ROOT":
continue
for mat_morph in root.mmd_root.material_morphs:
for morph_data in mat_morph.data:
if morph_data.material_data is not None:
# SUPPORT_UNTIL: 5 LTS
# The material_id is also no longer used, but for compatibility with older version mmd_tools, keep it.
if "material_id" not in morph_data.material_data.mmd_material or "material_id" not in morph_data or morph_data.material_data.mmd_material["material_id"] == morph_data["material_id"]:
# In the new version, the related_mesh property is no longer used.
# Explicitly remove this property to avoid misuse.
if "related_mesh" in morph_data:
del morph_data["related_mesh"]
continue
else:
# Compat case. The new version mmd_tools saved. And old version mmd_tools edit. Then new version mmd_tools load again.
# Go update path.
pass
morph_data.material_data = None
if "material_id" in morph_data:
mat_id = morph_data["material_id"]
if mat_id != -1:
fnMat = FnMaterial.from_material_id(mat_id)
if fnMat:
morph_data.material_data = fnMat.material
else:
morph_data["material_id"] = -1
morph_data.related_mesh_data = None
if "related_mesh" in morph_data:
related_mesh = morph_data["related_mesh"]
del morph_data["related_mesh"]
if related_mesh != "" and related_mesh in bpy.data.meshes:
morph_data.related_mesh_data = bpy.data.meshes[related_mesh]
@staticmethod
def ensure_material_id_not_conflict():
mat_ids_set = set()
# The reference library properties cannot be modified and bypassed in advance.
need_update_mat = []
for mat in bpy.data.materials:
if mat.mmd_material.material_id < 0:
continue
if mat.library is not None:
mat_ids_set.add(mat.mmd_material.material_id)
else:
need_update_mat.append(mat)
for mat in need_update_mat:
if mat.mmd_material.material_id in mat_ids_set:
mat.mmd_material.material_id = max(mat_ids_set) + 1
mat_ids_set.add(mat.mmd_material.material_id)
@staticmethod
def compatible_with_old_version_mmd_tools():
MigrationFnMorph.ensure_material_id_not_conflict()
for root in bpy.data.objects:
if root.mmd_type != "ROOT":
continue
for mat_morph in root.mmd_root.material_morphs:
for morph_data in mat_morph.data:
morph_data["related_mesh"] = morph_data.related_mesh
if morph_data.material_data is None:
morph_data.material_id = -1
else:
morph_data.material_id = morph_data.material_data.mmd_material.material_id
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
from typing import List, Optional
import bpy
from mathutils import Euler, Vector
from ..bpyutils import FnContext, Props
SHAPE_SPHERE = 0
SHAPE_BOX = 1
SHAPE_CAPSULE = 2
MODE_STATIC = 0
MODE_DYNAMIC = 1
MODE_DYNAMIC_BONE = 2
def shapeType(collision_shape):
return ("SPHERE", "BOX", "CAPSULE").index(collision_shape)
def collisionShape(shape_type):
return ("SPHERE", "BOX", "CAPSULE")[shape_type]
def setRigidBodyWorldEnabled(enable):
if bpy.ops.rigidbody.world_add.poll():
bpy.ops.rigidbody.world_add()
rigidbody_world = bpy.context.scene.rigidbody_world
enabled = rigidbody_world.enabled
rigidbody_world.enabled = enable
return enabled
class RigidBodyMaterial:
COLORS = [
0x7FDDD4,
0xF0E68C,
0xEE82EE,
0xFFE4E1,
0x8FEEEE,
0xADFF2F,
0xFA8072,
0x9370DB,
0x40E0D0,
0x96514D,
0x5A964E,
0xE6BFAB,
0xD3381C,
0x165E83,
0x701682,
0x828216,
]
@classmethod
def getMaterial(cls, number):
number = int(number)
material_name = "mmd_tools_rigid_%d" % (number)
if material_name not in bpy.data.materials:
mat = bpy.data.materials.new(material_name)
color = cls.COLORS[number]
mat.diffuse_color[:3] = [((0xFF0000 & color) >> 16) / float(255), ((0x00FF00 & color) >> 8) / float(255), (0x0000FF & color) / float(255)]
mat.specular_intensity = 0
if len(mat.diffuse_color) > 3:
mat.diffuse_color[3] = 0.5
mat.blend_method = "BLEND"
if hasattr(mat, "shadow_method"):
mat.shadow_method = "NONE"
mat.use_backface_culling = True
mat.show_transparent_back = False
mat.use_nodes = True
nodes, links = mat.node_tree.nodes, mat.node_tree.links
nodes.clear()
node_color = nodes.new("ShaderNodeBackground")
node_color.inputs["Color"].default_value = mat.diffuse_color
node_output = nodes.new("ShaderNodeOutputMaterial")
links.new(node_color.outputs[0], node_output.inputs["Surface"])
else:
mat = bpy.data.materials[material_name]
return mat
class FnRigidBody:
@staticmethod
def new_rigid_body_objects(context: bpy.types.Context, parent_object: bpy.types.Object, count: int) -> List[bpy.types.Object]:
if count < 1:
return []
obj = FnRigidBody.new_rigid_body_object(context, parent_object)
if count == 1:
return [obj]
return FnContext.duplicate_object(context, obj, count)
@staticmethod
def new_rigid_body_object(context: bpy.types.Context, parent_object: bpy.types.Object) -> bpy.types.Object:
obj = FnContext.new_and_link_object(context, name="Rigidbody", object_data=bpy.data.meshes.new(name="Rigidbody"))
obj.parent = parent_object
obj.mmd_type = "RIGID_BODY"
obj.rotation_mode = "YXZ"
setattr(obj, Props.display_type, "SOLID")
obj.show_transparent = True
obj.hide_render = True
obj.display.show_shadows = False
with context.temp_override(object=obj):
bpy.ops.rigidbody.object_add(type="ACTIVE")
return obj
@staticmethod
def setup_rigid_body_object(
obj: bpy.types.Object,
shape_type: str,
location: Vector,
rotation: Euler,
size: Vector,
dynamics_type: str,
collision_group_number: Optional[int] = None,
collision_group_mask: Optional[List[bool]] = None,
name: Optional[str] = None,
name_e: Optional[str] = None,
bone: Optional[str] = None,
friction: Optional[float] = None,
mass: Optional[float] = None,
angular_damping: Optional[float] = None,
linear_damping: Optional[float] = None,
bounce: Optional[float] = None,
) -> bpy.types.Object:
obj.location = location
obj.rotation_euler = rotation
obj.mmd_rigid.shape = collisionShape(shape_type)
obj.mmd_rigid.size = size
obj.mmd_rigid.type = str(dynamics_type) if dynamics_type in range(3) else "1"
if collision_group_number is not None:
obj.mmd_rigid.collision_group_number = collision_group_number
if collision_group_mask is not None:
obj.mmd_rigid.collision_group_mask = collision_group_mask
if name is not None:
obj.name = name
obj.mmd_rigid.name_j = name
obj.data.name = name
if name_e is not None:
obj.mmd_rigid.name_e = name_e
if bone is not None:
obj.mmd_rigid.bone = bone
else:
obj.mmd_rigid.bone = ""
rb = obj.rigid_body
if friction is not None:
rb.friction = friction
if mass is not None:
rb.mass = mass
if angular_damping is not None:
rb.angular_damping = angular_damping
if linear_damping is not None:
rb.linear_damping = linear_damping
if bounce is not None:
rb.restitution = bounce
return obj
@staticmethod
def get_rigid_body_size(obj: bpy.types.Object):
assert obj.mmd_type == "RIGID_BODY"
x0, y0, z0 = obj.bound_box[0]
x1, y1, z1 = obj.bound_box[6]
assert x1 >= x0 and y1 >= y0 and z1 >= z0
shape = obj.mmd_rigid.shape
if shape == "SPHERE":
radius = (z1 - z0) / 2
return (radius, 0.0, 0.0)
elif shape == "BOX":
x, y, z = (x1 - x0) / 2, (y1 - y0) / 2, (z1 - z0) / 2
return (x, y, z)
elif shape == "CAPSULE":
diameter = x1 - x0
radius = diameter / 2
height = abs((z1 - z0) - diameter)
return (radius, height, 0.0)
else:
raise ValueError(f"Invalid shape type: {shape}")
@staticmethod
def new_joint_object(context: bpy.types.Context, parent_object: bpy.types.Object, empty_display_size: float) -> bpy.types.Object:
obj = FnContext.new_and_link_object(context, name="Joint", object_data=None)
obj.parent = parent_object
obj.mmd_type = "JOINT"
obj.rotation_mode = "YXZ"
setattr(obj, Props.empty_display_type, "ARROWS")
setattr(obj, Props.empty_display_size, 0.1 * empty_display_size)
obj.hide_render = True
with context.temp_override():
context.view_layer.objects.active = obj
bpy.ops.rigidbody.constraint_add(type="GENERIC_SPRING")
rigid_body_constraint = obj.rigid_body_constraint
rigid_body_constraint.disable_collisions = False
rigid_body_constraint.use_limit_ang_x = True
rigid_body_constraint.use_limit_ang_y = True
rigid_body_constraint.use_limit_ang_z = True
rigid_body_constraint.use_limit_lin_x = True
rigid_body_constraint.use_limit_lin_y = True
rigid_body_constraint.use_limit_lin_z = True
rigid_body_constraint.use_spring_x = True
rigid_body_constraint.use_spring_y = True
rigid_body_constraint.use_spring_z = True
rigid_body_constraint.use_spring_ang_x = True
rigid_body_constraint.use_spring_ang_y = True
rigid_body_constraint.use_spring_ang_z = True
return obj
@staticmethod
def new_joint_objects(context: bpy.types.Context, parent_object: bpy.types.Object, count: int, empty_display_size: float) -> List[bpy.types.Object]:
if count < 1:
return []
obj = FnRigidBody.new_joint_object(context, parent_object, empty_display_size)
if count == 1:
return [obj]
return FnContext.duplicate_object(context, obj, count)
@staticmethod
def setup_joint_object(
obj: bpy.types.Object,
location: Vector,
rotation: Euler,
rigid_a: bpy.types.Object,
rigid_b: bpy.types.Object,
maximum_location: Vector,
minimum_location: Vector,
maximum_rotation: Euler,
minimum_rotation: Euler,
spring_angular: Vector,
spring_linear: Vector,
name: str,
name_e: Optional[str] = None,
) -> bpy.types.Object:
obj.name = f"J.{name}"
obj.location = location
obj.rotation_euler = rotation
rigid_body_constraint = obj.rigid_body_constraint
rigid_body_constraint.object1 = rigid_a
rigid_body_constraint.object2 = rigid_b
rigid_body_constraint.limit_lin_x_upper = maximum_location.x
rigid_body_constraint.limit_lin_y_upper = maximum_location.y
rigid_body_constraint.limit_lin_z_upper = maximum_location.z
rigid_body_constraint.limit_lin_x_lower = minimum_location.x
rigid_body_constraint.limit_lin_y_lower = minimum_location.y
rigid_body_constraint.limit_lin_z_lower = minimum_location.z
rigid_body_constraint.limit_ang_x_upper = maximum_rotation.x
rigid_body_constraint.limit_ang_y_upper = maximum_rotation.y
rigid_body_constraint.limit_ang_z_upper = maximum_rotation.z
rigid_body_constraint.limit_ang_x_lower = minimum_rotation.x
rigid_body_constraint.limit_ang_y_lower = minimum_rotation.y
rigid_body_constraint.limit_ang_z_lower = minimum_rotation.z
obj.mmd_joint.name_j = name
if name_e is not None:
obj.mmd_joint.name_e = name_e
obj.mmd_joint.spring_linear = spring_linear
obj.mmd_joint.spring_angular = spring_angular
return obj
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import logging
import time
import bpy
from mathutils import Matrix, Vector
from ..bpyutils import FnObject
def _hash(v):
if isinstance(v, (bpy.types.Object, bpy.types.PoseBone)):
return hash(type(v).__name__ + v.name)
elif isinstance(v, bpy.types.Pose):
return hash(type(v).__name__ + v.id_data.name)
else:
raise NotImplementedError("hash")
class FnSDEF:
g_verts = {} # global cache
g_shapekey_data = {}
g_bone_check = {}
__g_armature_check = {}
SHAPEKEY_NAME = "mmd_sdef_skinning"
MASK_NAME = "mmd_sdef_mask"
def __init__(self):
raise NotImplementedError("not allowed")
@classmethod
def __init_cache(cls, obj, shapekey):
key = _hash(obj)
obj = getattr(obj, "original", obj)
mod = obj.modifiers.get("mmd_bone_order_override")
key_armature = _hash(mod.object.pose) if mod and mod.type == "ARMATURE" and mod.object else None
if key not in cls.g_verts or cls.__g_armature_check.get(key) != key_armature:
cls.g_verts[key] = cls.__find_vertices(obj)
cls.g_bone_check[key] = {}
cls.__g_armature_check[key] = key_armature
cls.g_shapekey_data[key] = None
return True
return False
@classmethod
def __check_bone_update(cls, obj, bone0, bone1):
check = cls.g_bone_check[_hash(obj)]
key = (_hash(bone0), _hash(bone1))
if key not in check or (bone0.matrix, bone1.matrix) != check[key]:
check[key] = (bone0.matrix.copy(), bone1.matrix.copy())
return True
return False
@classmethod
def mute_sdef_set(cls, obj, mute):
key_blocks = getattr(obj.data.shape_keys, "key_blocks", ())
if cls.SHAPEKEY_NAME in key_blocks:
shapekey = key_blocks[cls.SHAPEKEY_NAME]
shapekey.mute = mute
if cls.has_sdef_data(obj):
cls.__init_cache(obj, shapekey)
cls.__sdef_muted(obj, shapekey)
@classmethod
def __sdef_muted(cls, obj, shapekey):
mute = shapekey.mute
if mute != cls.g_bone_check[_hash(obj)].get("sdef_mute"):
mod = obj.modifiers.get("mmd_bone_order_override")
if mod and mod.type == "ARMATURE":
if not mute and cls.MASK_NAME not in obj.vertex_groups and obj.mode != "EDIT":
mask = tuple(i for v in cls.g_verts[_hash(obj)].values() for i in v[3])
obj.vertex_groups.new(name=cls.MASK_NAME).add(mask, 1, "REPLACE")
mod.vertex_group = "" if mute else cls.MASK_NAME
mod.invert_vertex_group = True
shapekey.vertex_group = cls.MASK_NAME
cls.g_bone_check[_hash(obj)]["sdef_mute"] = mute
return mute
@staticmethod
def has_sdef_data(obj):
mod = obj.modifiers.get("mmd_bone_order_override")
if mod and mod.type == "ARMATURE" and mod.object:
kb = getattr(obj.data.shape_keys, "key_blocks", None)
return kb and "mmd_sdef_c" in kb and "mmd_sdef_r0" in kb and "mmd_sdef_r1" in kb
return False
@classmethod
def __find_vertices(cls, obj):
if not cls.has_sdef_data(obj):
return {}
vertices = {}
pose_bones = obj.modifiers.get("mmd_bone_order_override").object.pose.bones
bone_map = {g.index: pose_bones[g.name] for g in obj.vertex_groups if g.name in pose_bones}
sdef_c = obj.data.shape_keys.key_blocks["mmd_sdef_c"].data
sdef_r0 = obj.data.shape_keys.key_blocks["mmd_sdef_r0"].data
sdef_r1 = obj.data.shape_keys.key_blocks["mmd_sdef_r1"].data
vd = obj.data.vertices
for i in range(len(sdef_c)):
if vd[i].co != sdef_c[i].co:
bgs = [g for g in vd[i].groups if g.group in bone_map and g.weight] # bone groups
if len(bgs) >= 2:
bgs.sort(key=lambda x: x.group)
# preprocessing
w0, w1 = bgs[0].weight, bgs[1].weight
# w0 + w1 == 1
w0 = w0 / (w0 + w1)
w1 = 1 - w0
c, r0, r1 = sdef_c[i].co, sdef_r0[i].co, sdef_r1[i].co
rw = r0 * w0 + r1 * w1
r0 = c + r0 - rw
r1 = c + r1 - rw
key = (bgs[0].group, bgs[1].group)
if key not in vertices:
# TODO basically we can not cache any bone reference
vertices[key] = (bone_map[bgs[0].group], bone_map[bgs[1].group], [], [])
vertices[key][2].append((i, w0, w1, vd[i].co - c, (c + r0) / 2, (c + r1) / 2))
vertices[key][3].append(i)
return vertices
@classmethod
def driver_function_wrap(cls, obj_name, bulk_update, use_skip, use_scale):
obj = bpy.data.objects[obj_name]
shapekey = obj.data.shape_keys.key_blocks[cls.SHAPEKEY_NAME]
return cls.driver_function(shapekey, obj_name, bulk_update, use_skip, use_scale)
@classmethod
def driver_function(cls, shapekey, obj_name, bulk_update, use_skip, use_scale):
obj = bpy.data.objects[obj_name]
if getattr(shapekey.id_data, "is_evaluated", False):
# For Blender 2.8x, we should use evaluated object, and the only reference is the "obj" variable of SDEF driver
# cls.driver_function(shapekey.id_data.original.key_blocks[shapekey.name], obj_name, bulk_update, use_skip, use_scale) # update original data
data_path = shapekey.path_from_id("value")
obj = next(i for i in shapekey.id_data.animation_data.drivers if i.data_path == data_path).driver.variables["obj"].targets[0].id
cls.__init_cache(obj, shapekey)
if cls.__sdef_muted(obj, shapekey):
return 0.0
pose_bones = obj.modifiers.get("mmd_bone_order_override").object.pose.bones
if not bulk_update:
shapekey_data = shapekey.data
if use_scale:
# with scale
key_blocks = tuple(k for k in shapekey.id_data.key_blocks[1:] if not k.mute and k.value and k.name != cls.SHAPEKEY_NAME)
for bone0, bone1, sdef_data, vids in cls.g_verts[_hash(obj)].values():
bone0, bone1 = pose_bones[bone0.name], pose_bones[bone1.name]
# if use_skip and not cls.__check_bone_update(obj, bone0, bone1):
# continue
mat0 = bone0.matrix @ bone0.bone.matrix_local.inverted()
mat1 = bone1.matrix @ bone1.bone.matrix_local.inverted()
rot0 = mat0.to_euler("YXZ").to_quaternion()
rot1 = mat1.to_euler("YXZ").to_quaternion()
if rot1.dot(rot0) < 0:
rot1 = -rot1
s0, s1 = mat0.to_scale(), mat1.to_scale()
for vid, w0, w1, pos_c, cr0, cr1 in sdef_data:
s = s0 * w0 + s1 * w1
mat_rot = (rot0 * w0 + rot1 * w1).normalized().to_matrix() @ Matrix([(s[0], 0, 0), (0, s[1], 0), (0, 0, s[2])])
delta = sum(((key.data[vid].co - key.relative_key.data[vid].co) * key.value for key in key_blocks), Vector()) # assuming key.vertex_group = ''
shapekey_data[vid].co = (mat_rot @ (pos_c + delta)) - delta + (mat0 @ cr0) * w0 + (mat1 @ cr1) * w1
else:
# default
for bone0, bone1, sdef_data, vids in cls.g_verts[_hash(obj)].values():
bone0, bone1 = pose_bones[bone0.name], pose_bones[bone1.name]
if use_skip and not cls.__check_bone_update(obj, bone0, bone1):
continue
mat0 = bone0.matrix @ bone0.bone.matrix_local.inverted()
mat1 = bone1.matrix @ bone1.bone.matrix_local.inverted()
# workaround some weird result of matrix.to_quaternion() using to_euler(), but still minor issues
rot0 = mat0.to_euler("YXZ").to_quaternion()
rot1 = mat1.to_euler("YXZ").to_quaternion()
if rot1.dot(rot0) < 0:
rot1 = -rot1
for vid, w0, w1, pos_c, cr0, cr1 in sdef_data:
mat_rot = (rot0 * w0 + rot1 * w1).normalized().to_matrix()
shapekey_data[vid].co = (mat_rot @ pos_c) + (mat0 @ cr0) * w0 + (mat1 @ cr1) * w1
else: # bulk update
shapekey_data = cls.g_shapekey_data[_hash(obj)]
if shapekey_data is None:
import numpy as np
shapekey_data = np.zeros(len(shapekey.data) * 3, dtype=np.float32)
shapekey.data.foreach_get("co", shapekey_data)
shapekey_data = cls.g_shapekey_data[_hash(obj)] = shapekey_data.reshape(len(shapekey.data), 3)
if use_scale:
# scale & bulk update
key_blocks = tuple(k for k in shapekey.id_data.key_blocks[1:] if not k.mute and k.value and k.name != cls.SHAPEKEY_NAME)
for bone0, bone1, sdef_data, vids in cls.g_verts[_hash(obj)].values():
bone0, bone1 = pose_bones[bone0.name], pose_bones[bone1.name]
# if use_skip and not cls.__check_bone_update(obj, bone0, bone1):
# continue
mat0 = bone0.matrix @ bone0.bone.matrix_local.inverted()
mat1 = bone1.matrix @ bone1.bone.matrix_local.inverted()
rot0 = mat0.to_euler("YXZ").to_quaternion()
rot1 = mat1.to_euler("YXZ").to_quaternion()
if rot1.dot(rot0) < 0:
rot1 = -rot1
s0, s1 = mat0.to_scale(), mat1.to_scale()
def scale(mat_rot, w0, w1):
s = s0 * w0 + s1 * w1
return mat_rot @ Matrix([(s[0], 0, 0), (0, s[1], 0), (0, 0, s[2])])
def offset(mat_rot, pos_c, vid):
delta = sum(((key.data[vid].co - key.relative_key.data[vid].co) * key.value for key in key_blocks), Vector()) # assuming key.vertex_group = ''
return (mat_rot @ (pos_c + delta)) - delta
shapekey_data[vids] = [offset(scale((rot0 * w0 + rot1 * w1).normalized().to_matrix(), w0, w1), pos_c, vid) + (mat0 @ cr0) * w0 + (mat1 @ cr1) * w1 for vid, w0, w1, pos_c, cr0, cr1 in sdef_data]
else:
# bulk update
for bone0, bone1, sdef_data, vids in cls.g_verts[_hash(obj)].values():
bone0, bone1 = pose_bones[bone0.name], pose_bones[bone1.name]
if use_skip and not cls.__check_bone_update(obj, bone0, bone1):
continue
mat0 = bone0.matrix @ bone0.bone.matrix_local.inverted()
mat1 = bone1.matrix @ bone1.bone.matrix_local.inverted()
rot0 = mat0.to_euler("YXZ").to_quaternion()
rot1 = mat1.to_euler("YXZ").to_quaternion()
if rot1.dot(rot0) < 0:
rot1 = -rot1
shapekey_data[vids] = [((rot0 * w0 + rot1 * w1).normalized().to_matrix() @ pos_c) + (mat0 @ cr0) * w0 + (mat1 @ cr1) * w1 for vid, w0, w1, pos_c, cr0, cr1 in sdef_data]
shapekey.data.foreach_set("co", shapekey_data.reshape(3 * len(shapekey.data)))
return 1.0 # shapkey value
@classmethod
def register_driver_function(cls):
if "mmd_sdef_driver" not in bpy.app.driver_namespace:
bpy.app.driver_namespace["mmd_sdef_driver"] = cls.driver_function
if "mmd_sdef_driver_wrap" not in bpy.app.driver_namespace:
bpy.app.driver_namespace["mmd_sdef_driver_wrap"] = cls.driver_function_wrap
BENCH_LOOP = 10
@classmethod
def __get_benchmark_result(cls, obj, shapkey, use_scale, use_skip):
# warmed up
cls.driver_function(shapkey, obj.name, bulk_update=True, use_skip=False, use_scale=use_scale)
cls.driver_function(shapkey, obj.name, bulk_update=False, use_skip=False, use_scale=use_scale)
# benchmark
t = time.time()
for i in range(cls.BENCH_LOOP):
cls.driver_function(shapkey, obj.name, bulk_update=False, use_skip=False, use_scale=use_scale)
default_time = time.time() - t
t = time.time()
for i in range(cls.BENCH_LOOP):
cls.driver_function(shapkey, obj.name, bulk_update=True, use_skip=False, use_scale=use_scale)
bulk_time = time.time() - t
result = default_time > bulk_time
logging.info("FnSDEF:benchmark: default %.4f vs bulk_update %.4f => bulk_update=%s", default_time, bulk_time, result)
return result
@classmethod
def bind(cls, obj, bulk_update=None, use_skip=True, use_scale=False):
# Unbind first
cls.unbind(obj)
if not cls.has_sdef_data(obj):
return False
# Create the shapekey for the driver
shapekey = obj.shape_key_add(name=cls.SHAPEKEY_NAME, from_mix=False)
cls.__init_cache(obj, shapekey)
cls.__sdef_muted(obj, shapekey)
cls.register_driver_function()
if bulk_update is None:
bulk_update = cls.__get_benchmark_result(obj, shapekey, use_scale, use_skip)
# Add the driver to the shapekey
f = obj.data.shape_keys.driver_add('key_blocks["' + cls.SHAPEKEY_NAME + '"].value', -1)
if hasattr(f.driver, "show_debug_info"):
f.driver.show_debug_info = False
f.driver.type = "SCRIPTED"
ov = f.driver.variables.new()
ov.name = "obj"
ov.type = "SINGLE_PROP"
ov.targets[0].id = obj
ov.targets[0].data_path = "name"
if not bulk_update and use_skip: # FIXME: force disable use_skip=True for bulk_update=False on 2.8
use_skip = False
mod = obj.modifiers.get("mmd_bone_order_override")
variables = f.driver.variables
for name in set(data[i].name for data in cls.g_verts[_hash(obj)].values() for i in range(2)): # add required bones for dependency graph
var = variables.new()
var.type = "TRANSFORMS"
var.targets[0].id = mod.object
var.targets[0].bone_target = name
f.driver.use_self = True
param = (bulk_update, use_skip, use_scale)
f.driver.expression = "mmd_sdef_driver(self, obj, bulk_update={}, use_skip={}, use_scale={})".format(*param)
return True
@classmethod
def unbind(cls, obj):
if obj.data.shape_keys:
if cls.SHAPEKEY_NAME in obj.data.shape_keys.key_blocks:
FnObject.mesh_remove_shape_key(obj, obj.data.shape_keys.key_blocks[cls.SHAPEKEY_NAME])
for mod in obj.modifiers:
if mod.type == "ARMATURE" and mod.vertex_group == cls.MASK_NAME:
mod.vertex_group = ""
mod.invert_vertex_group = False
break
if cls.MASK_NAME in obj.vertex_groups:
obj.vertex_groups.remove(obj.vertex_groups[cls.MASK_NAME])
cls.clear_cache(obj)
@classmethod
def clear_cache(cls, obj=None, unused_only=False):
if unused_only:
valid_keys = set(_hash(i) for i in bpy.data.objects if i.type == "MESH" and i != obj)
for key in cls.g_verts.keys() - valid_keys:
del cls.g_verts[key]
for key in cls.g_shapekey_data.keys() - cls.g_verts.keys():
del cls.g_shapekey_data[key]
for key in cls.g_bone_check.keys() - cls.g_verts.keys():
del cls.g_bone_check[key]
elif obj:
key = _hash(obj)
if key in cls.g_verts:
del cls.g_verts[key]
if key in cls.g_shapekey_data:
del cls.g_shapekey_data[key]
if key in cls.g_bone_check:
del cls.g_bone_check[key]
else:
cls.g_verts = {}
cls.g_bone_check = {}
cls.g_shapekey_data = {}
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
from typing import Optional, Tuple, cast
import bpy
class _NodeTreeUtils:
def __init__(self, shader: bpy.types.ShaderNodeTree):
self.shader = shader
self.nodes: bpy.types.bpy_prop_collection[bpy.types.ShaderNode] = shader.nodes # type: ignore
self.links = shader.links
def _find_node(self, node_type: str) -> Optional[bpy.types.ShaderNode]:
return next((n for n in self.nodes if n.bl_idname == node_type), None)
def new_node(self, idname: str, pos: Tuple[int, int]) -> bpy.types.ShaderNode:
node: bpy.types.ShaderNode = self.nodes.new(idname)
node.location = (pos[0] * 210, pos[1] * 220)
return node
def new_math_node(self, operation, pos, value1=None, value2=None):
node = self.new_node("ShaderNodeMath", pos)
node.operation = operation
if value1 is not None:
node.inputs[0].default_value = value1
if value2 is not None:
node.inputs[1].default_value = value2
return node
def new_vector_math_node(self, operation, pos, vector1=None, vector2=None):
node = self.new_node("ShaderNodeVectorMath", pos)
node.operation = operation
if vector1 is not None:
node.inputs[0].default_value = vector1
if vector2 is not None:
node.inputs[1].default_value = vector2
return node
def new_mix_node(self, blend_type, pos, fac=None, color1=None, color2=None):
node = self.new_node("ShaderNodeMixRGB", pos)
node.blend_type = blend_type
if fac is not None:
node.inputs["Fac"].default_value = fac
if color1 is not None:
node.inputs["Color1"].default_value = color1
if color2 is not None:
node.inputs["Color2"].default_value = color2
return node
SOCKET_TYPE_MAPPING = {"NodeSocketFloatFactor": "NodeSocketFloat"}
SOCKET_SUBTYPE_MAPPING = {"NodeSocketFloatFactor": "FACTOR"}
class _NodeGroupUtils(_NodeTreeUtils):
def __init__(self, shader: bpy.types.ShaderNodeTree):
super().__init__(shader)
self.__node_input: Optional[bpy.types.NodeGroupInput] = None
self.__node_output: Optional[bpy.types.NodeGroupOutput] = None
@property
def node_input(self) -> bpy.types.NodeGroupInput:
if not self.__node_input:
self.__node_input = cast(bpy.types.NodeGroupInput, self._find_node("NodeGroupInput") or self.new_node("NodeGroupInput", (-2, 0)))
return self.__node_input
@property
def node_output(self) -> bpy.types.NodeGroupOutput:
if not self.__node_output:
self.__node_output = cast(bpy.types.NodeGroupOutput, self._find_node("NodeGroupOutput") or self.new_node("NodeGroupOutput", (2, 0)))
return self.__node_output
def hide_nodes(self, hide_sockets=True):
skip_nodes = {self.__node_input, self.__node_output}
for n in (x for x in self.nodes if x not in skip_nodes):
n.hide = True
if not hide_sockets:
continue
for s in n.inputs:
s.hide = not s.is_linked
for s in n.outputs:
s.hide = not s.is_linked
def new_input_socket(self, io_name, socket, default_val=None, min_max=None, socket_type=None):
self.__new_io("INPUT", self.node_input.outputs, io_name, socket, default_val, min_max, socket_type)
def new_output_socket(self, io_name, socket, default_val=None, min_max=None, socket_type=None):
self.__new_io("OUTPUT", self.node_output.inputs, io_name, socket, default_val, min_max, socket_type)
def __new_io(self, in_out, io_sockets, io_name, socket, default_val=None, min_max=None, socket_type=None):
if io_name not in io_sockets:
idname = socket_type or socket.bl_idname
interface_socket = self.shader.interface.new_socket(name=io_name, in_out=in_out, socket_type=SOCKET_TYPE_MAPPING.get(idname, idname))
if idname in SOCKET_SUBTYPE_MAPPING:
interface_socket.subtype = SOCKET_SUBTYPE_MAPPING.get(idname, "")
if not min_max:
if idname.endswith("Factor") or io_name.endswith("Alpha"):
interface_socket.min_value, interface_socket.max_value = 0, 1
elif idname.endswith("Float") or idname.endswith("Vector"):
interface_socket.min_value, interface_socket.max_value = -10, 10
if socket is not None:
self.links.new(io_sockets[io_name], socket)
if default_val is not None:
interface_socket.default_value = default_val
if min_max is not None:
interface_socket.min_value, interface_socket.max_value = min_max
class _MaterialMorph:
@classmethod
def update_morph_inputs(cls, material, morph):
if material and material.node_tree and morph.name in material.node_tree.nodes:
cls.__update_node_inputs(material.node_tree.nodes[morph.name], morph)
cls.update_morph_inputs(bpy.data.materials.get("mmd_edge." + material.name, None), morph)
@classmethod
def setup_morph_nodes(cls, material, morphs):
node, nodes = None, []
for m in morphs:
node = cls.__morph_node_add(material, m, node)
nodes.append(node)
if node:
node = cls.__morph_node_add(material, None, node) or node
for n in reversed(nodes):
n.location += node.location
if n.node_tree.name != node.node_tree.name:
n.location.x -= 100
if node.name.startswith("mmd_"):
n.location.y += 1500
node = n
return nodes
@classmethod
def reset_morph_links(cls, node):
cls.__update_morph_links(node, reset=True)
@classmethod
def __update_morph_links(cls, node, reset=False):
nodes, links = node.id_data.nodes, node.id_data.links
if reset:
if any(l.from_node.name.startswith("mmd_bind") for i in node.inputs for l in i.links):
return
def __init_link(socket_morph, socket_shader):
if socket_shader and socket_morph.is_linked:
links.new(socket_morph.links[0].from_socket, socket_shader)
else:
def __init_link(socket_morph, socket_shader):
if socket_shader:
if socket_shader.is_linked:
links.new(socket_shader.links[0].from_socket, socket_morph)
if socket_morph.type == "VALUE":
socket_morph.default_value = socket_shader.default_value
else:
socket_morph.default_value[:3] = socket_shader.default_value[:3]
shader = nodes.get("mmd_shader", None)
if shader:
__init_link(node.inputs["Ambient1"], shader.inputs.get("Ambient Color"))
__init_link(node.inputs["Diffuse1"], shader.inputs.get("Diffuse Color"))
__init_link(node.inputs["Specular1"], shader.inputs.get("Specular Color"))
__init_link(node.inputs["Reflect1"], shader.inputs.get("Reflect"))
__init_link(node.inputs["Alpha1"], shader.inputs.get("Alpha"))
__init_link(node.inputs["Base1 RGB"], shader.inputs.get("Base Tex"))
__init_link(node.inputs["Toon1 RGB"], shader.inputs.get("Toon Tex")) # FIXME toon only affect shadow color
__init_link(node.inputs["Sphere1 RGB"], shader.inputs.get("Sphere Tex"))
elif "mmd_edge_preview" in nodes:
shader = nodes["mmd_edge_preview"]
__init_link(node.inputs["Edge1 RGB"], shader.inputs["Color"])
__init_link(node.inputs["Edge1 A"], shader.inputs["Alpha"])
@classmethod
def __update_node_inputs(cls, node, morph):
node.inputs["Ambient2"].default_value[:3] = morph.ambient_color[:3]
node.inputs["Diffuse2"].default_value[:3] = morph.diffuse_color[:3]
node.inputs["Specular2"].default_value[:3] = morph.specular_color[:3]
node.inputs["Reflect2"].default_value = morph.shininess
node.inputs["Alpha2"].default_value = morph.diffuse_color[3]
node.inputs["Edge2 RGB"].default_value[:3] = morph.edge_color[:3]
node.inputs["Edge2 A"].default_value = morph.edge_color[3]
node.inputs["Base2 RGB"].default_value[:3] = morph.texture_factor[:3]
node.inputs["Base2 A"].default_value = morph.texture_factor[3]
node.inputs["Toon2 RGB"].default_value[:3] = morph.toon_texture_factor[:3]
node.inputs["Toon2 A"].default_value = morph.toon_texture_factor[3]
node.inputs["Sphere2 RGB"].default_value[:3] = morph.sphere_texture_factor[:3]
node.inputs["Sphere2 A"].default_value = morph.sphere_texture_factor[3]
@classmethod
def __morph_node_add(cls, material, morph, prev_node):
nodes, links = material.node_tree.nodes, material.node_tree.links
shader = nodes.get("mmd_shader", None)
if morph:
node = nodes.new("ShaderNodeGroup")
node.parent = getattr(shader, "parent", None)
node.location = (-250, 0)
node.node_tree = cls.__get_shader("Add" if morph.offset_type == "ADD" else "Mul")
cls.__update_node_inputs(node, morph)
if prev_node:
for id_name in ("Ambient", "Diffuse", "Specular", "Reflect", "Alpha"):
links.new(prev_node.outputs[id_name], node.inputs[id_name + "1"])
for id_name in ("Edge", "Base", "Toon", "Sphere"):
links.new(prev_node.outputs[id_name + " RGB"], node.inputs[id_name + "1 RGB"])
links.new(prev_node.outputs[id_name + " A"], node.inputs[id_name + "1 A"])
else: # initial first node
if node.node_tree.name.endswith("Add"):
node.inputs["Base1 A"].default_value = 1
node.inputs["Toon1 A"].default_value = 1
node.inputs["Sphere1 A"].default_value = 1
cls.__update_morph_links(node)
return node
# connect last node to shader
if shader:
def __soft_link(socket_out, socket_in):
if socket_out and socket_in:
links.new(socket_out, socket_in)
__soft_link(prev_node.outputs["Ambient"], shader.inputs.get("Ambient Color"))
__soft_link(prev_node.outputs["Diffuse"], shader.inputs.get("Diffuse Color"))
__soft_link(prev_node.outputs["Specular"], shader.inputs.get("Specular Color"))
__soft_link(prev_node.outputs["Reflect"], shader.inputs.get("Reflect"))
__soft_link(prev_node.outputs["Alpha"], shader.inputs.get("Alpha"))
__soft_link(prev_node.outputs["Base Tex"], shader.inputs.get("Base Tex"))
__soft_link(prev_node.outputs["Toon Tex"], shader.inputs.get("Toon Tex"))
if int(material.mmd_material.sphere_texture_type) != 2: # shader.inputs['Sphere Mul/Add'].default_value < 0.5
__soft_link(prev_node.outputs["Sphere Tex"], shader.inputs.get("Sphere Tex"))
else:
__soft_link(prev_node.outputs["Sphere Tex Add"], shader.inputs.get("Sphere Tex"))
elif "mmd_edge_preview" in nodes:
shader = nodes["mmd_edge_preview"]
links.new(prev_node.outputs["Edge RGB"], shader.inputs["Color"])
links.new(prev_node.outputs["Edge A"], shader.inputs["Alpha"])
return shader
@classmethod
def __get_shader(cls, morph_type):
group_name = "MMDMorph" + morph_type
shader = bpy.data.node_groups.get(group_name, None) or bpy.data.node_groups.new(name=group_name, type="ShaderNodeTree")
if len(shader.nodes):
return shader
ng = _NodeGroupUtils(shader)
links = ng.links
use_mul = morph_type == "Mul"
############################################################################
node_input = ng.new_node("NodeGroupInput", (-3, 0))
ng.new_input_socket("Fac", None, 0, socket_type="NodeSocketFloat")
ng.new_node("NodeGroupOutput", (3, 0))
def __blend_color_add(id_name, pos, tag=""):
# MA_RAMP_MULT: ColorMul = Color1 * (Fac * Color2 + (1 - Fac))
# MA_RAMP_ADD: ColorAdd = Color1 + Fac * Color2
# https://github.com/blender/blender/blob/594f47ecd2d5367ca936cf6fc6ec8168c2b360d0/source/blender/blenkernel/intern/material.c#L1400
node_mix = ng.new_mix_node("MULTIPLY" if use_mul else "ADD", (pos[0] + 1, pos[1]))
links.new(node_input.outputs["Fac"], node_mix.inputs["Fac"])
ng.new_input_socket("%s1" % id_name + tag, node_mix.inputs["Color1"])
ng.new_input_socket("%s2" % id_name + tag, node_mix.inputs["Color2"], socket_type="NodeSocketVector")
ng.new_output_socket(id_name + tag, node_mix.outputs["Color"])
return node_mix
def __blend_tex_color(id_name, pos, node_tex_rgb, node_tex_a_output):
# Tex Color = tex_rgb * tex_a + (1 - tex_a)
# : tex_rgb = TexRGB * ColorMul + ColorAdd
# : tex_a = TexA * ValueMul + ValueAdd
if id_name != "Sphere":
node_mix = ng.new_mix_node("MULTIPLY", pos, color1=(1, 1, 1, 1))
links.new(node_tex_a_output, node_mix.inputs[0])
links.new(node_tex_rgb.outputs["Color"], node_mix.inputs[2])
ng.new_output_socket(id_name + " Tex", node_mix.outputs[0])
else:
node_inv = ng.new_math_node("SUBTRACT", (pos[0], pos[1] - 0.25), value1=1.0)
node_scale = ng.new_vector_math_node("SCALE", (pos[0], pos[1]))
node_add = ng.new_vector_math_node("ADD", (pos[0] + 1, pos[1]))
links.new(node_tex_a_output, node_inv.inputs[1])
links.new(node_tex_rgb.outputs["Color"], node_scale.inputs[0])
links.new(node_tex_a_output, node_scale.inputs["Scale"])
links.new(node_scale.outputs[0], node_add.inputs[0])
links.new(node_inv.outputs[0], node_add.inputs[1])
ng.new_output_socket(id_name + " Tex", node_add.outputs[0], socket_type="NodeSocketColor")
ng.new_output_socket(id_name + " Tex Add", node_scale.outputs[0], socket_type="NodeSocketColor")
def __add_sockets(id_name, input1, input2, output, tag=""):
ng.new_input_socket(f"{id_name}1{tag}", input1, use_mul)
ng.new_input_socket(f"{id_name}2{tag}", input2, use_mul)
ng.new_output_socket(f"{id_name}{tag}", output)
pos_x = -2
__blend_color_add("Ambient", (pos_x, +0.5))
__blend_color_add("Diffuse", (pos_x, +0.0))
__blend_color_add("Specular", (pos_x, -0.5))
combine_reflect1_alpha1_edge1 = ng.new_node("ShaderNodeCombineRGB", (-2, -1.5))
combine_reflect2_alpha2_edge2 = ng.new_node("ShaderNodeCombineRGB", (-2, -1.75))
separate_reflect_alpha_edge = ng.new_node("ShaderNodeSeparateRGB", (pos_x + 2, -1.5))
__add_sockets("Reflect", combine_reflect1_alpha1_edge1.inputs[0], combine_reflect2_alpha2_edge2.inputs[0], separate_reflect_alpha_edge.outputs[0])
__add_sockets("Alpha", combine_reflect1_alpha1_edge1.inputs[1], combine_reflect2_alpha2_edge2.inputs[1], separate_reflect_alpha_edge.outputs[1])
__blend_color_add("Edge", (pos_x, -1.0), " RGB")
__add_sockets("Edge", combine_reflect1_alpha1_edge1.inputs[2], combine_reflect2_alpha2_edge2.inputs[2], separate_reflect_alpha_edge.outputs[2], tag=" A")
node_mix = ng.new_mix_node("MULTIPLY" if use_mul else "ADD", (pos_x + 1, -1.5))
links.new(node_input.outputs["Fac"], node_mix.inputs[0])
links.new(combine_reflect1_alpha1_edge1.outputs[0], node_mix.inputs[1])
links.new(combine_reflect2_alpha2_edge2.outputs[0], node_mix.inputs[2])
links.new(node_mix.outputs[0], separate_reflect_alpha_edge.inputs[0])
combine_base1a_toon1a_sphere1a = ng.new_node("ShaderNodeCombineRGB", (-2, -2.0))
combine_base2a_toon2a_sphere2a = ng.new_node("ShaderNodeCombineRGB", (-2, -2.25))
separate_basea_toona_spherea = ng.new_node("ShaderNodeSeparateRGB", (pos_x + 2, -2.0))
node_mix = ng.new_mix_node("MULTIPLY" if use_mul else "ADD", (pos_x + 1, -2.0))
links.new(node_input.outputs["Fac"], node_mix.inputs[0])
links.new(combine_base1a_toon1a_sphere1a.outputs[0], node_mix.inputs[1])
links.new(combine_base2a_toon2a_sphere2a.outputs[0], node_mix.inputs[2])
links.new(node_mix.outputs[0], separate_basea_toona_spherea.inputs[0])
base_rgb = __blend_color_add("Base", (pos_x, -2.5), " RGB")
__add_sockets("Base", combine_base1a_toon1a_sphere1a.inputs[0], combine_base2a_toon2a_sphere2a.inputs[0], separate_basea_toona_spherea.outputs[0], tag=" A")
__blend_tex_color("Base", (pos_x + 3, -2.5), base_rgb, separate_basea_toona_spherea.outputs[0])
toon_rgb = __blend_color_add("Toon", (pos_x, -3.0), " RGB")
__add_sockets("Toon", combine_base1a_toon1a_sphere1a.inputs[1], combine_base2a_toon2a_sphere2a.inputs[1], separate_basea_toona_spherea.outputs[1], tag=" A")
__blend_tex_color("Toon", (pos_x + 3, -3.0), toon_rgb, separate_basea_toona_spherea.outputs[1])
sphere_rgb = __blend_color_add("Sphere", (pos_x, -3.5), " RGB")
__add_sockets("Sphere", combine_base1a_toon1a_sphere1a.inputs[2], combine_base2a_toon2a_sphere2a.inputs[2], separate_basea_toona_spherea.outputs[2], tag=" A")
__blend_tex_color("Sphere", (pos_x + 3, -3.5), sphere_rgb, separate_basea_toona_spherea.outputs[2])
ng.hide_nodes()
return ng.shader
+738
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@@ -0,0 +1,738 @@
# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import itertools
import re
from abc import ABC, abstractmethod
from enum import Enum
from typing import TYPE_CHECKING, Callable, Dict, Optional, Set, Tuple
import bpy
from ..translations import DictionaryEnum
from ..utils import convertLRToName, convertNameToLR
from .model import FnModel, Model
if TYPE_CHECKING:
from ..properties.morph import _MorphBase
from ..properties.root import MMDRoot
from ..properties.translations import MMDTranslation, MMDTranslationElement, MMDTranslationElementIndex
class MMDTranslationElementType(Enum):
BONE = "Bones"
MORPH = "Morphs"
MATERIAL = "Materials"
DISPLAY = "Display"
PHYSICS = "Physics"
INFO = "Information"
class MMDDataHandlerABC(ABC):
@classmethod
@property
@abstractmethod
def type_name(cls) -> str:
pass
@classmethod
@abstractmethod
def draw_item(cls, layout: bpy.types.UILayout, mmd_translation_element: "MMDTranslationElement", index: int):
pass
@classmethod
@abstractmethod
def collect_data(cls, mmd_translation: "MMDTranslation"):
pass
@classmethod
@abstractmethod
def update_index(cls, mmd_translation_element: "MMDTranslationElement"):
pass
@classmethod
@abstractmethod
def update_query(cls, mmd_translation: "MMDTranslation", filter_selected: bool, filter_visible: bool, check_blank_name: Callable[[str, str], bool]):
pass
@classmethod
@abstractmethod
def set_names(cls, mmd_translation_element: "MMDTranslationElement", name: Optional[str], name_j: Optional[str], name_e: Optional[str]):
pass
@classmethod
@abstractmethod
def get_names(cls, mmd_translation_element: "MMDTranslationElement") -> Tuple[str, str, str]:
"""Returns (name, name_j, name_e)"""
@classmethod
def is_restorable(cls, mmd_translation_element: "MMDTranslationElement") -> bool:
return (mmd_translation_element.name, mmd_translation_element.name_j, mmd_translation_element.name_e) != cls.get_names(mmd_translation_element)
@classmethod
def check_data_visible(cls, filter_selected: bool, filter_visible: bool, select: bool, hide: bool) -> bool:
return filter_selected and not select or filter_visible and hide
@classmethod
def prop_restorable(cls, layout: bpy.types.UILayout, mmd_translation_element: "MMDTranslationElement", prop_name: str, original_value: str, index: int):
row = layout.row(align=True)
row.prop(mmd_translation_element, prop_name, text="")
if getattr(mmd_translation_element, prop_name) == original_value:
row.label(text="", icon="BLANK1")
return
op = row.operator("mmd_tools.restore_mmd_translation_element_name", text="", icon="FILE_REFRESH")
op.index = index
op.prop_name = prop_name
op.restore_value = original_value
@classmethod
def prop_disabled(cls, layout: bpy.types.UILayout, mmd_translation_element: "MMDTranslationElement", prop_name: str):
row = layout.row(align=True)
row.enabled = False
row.prop(mmd_translation_element, prop_name, text="")
row.label(text="", icon="BLANK1")
class MMDBoneHandler(MMDDataHandlerABC):
@classmethod
@property
def type_name(cls) -> str:
return MMDTranslationElementType.BONE.name
@classmethod
def draw_item(cls, layout: bpy.types.UILayout, mmd_translation_element: "MMDTranslationElement", index: int):
pose_bone: bpy.types.PoseBone = mmd_translation_element.object.path_resolve(mmd_translation_element.data_path)
row = layout.row(align=True)
row.label(text="", icon="BONE_DATA")
prop_row = row.row()
cls.prop_restorable(prop_row, mmd_translation_element, "name", pose_bone.name, index)
cls.prop_restorable(prop_row, mmd_translation_element, "name_j", pose_bone.mmd_bone.name_j, index)
cls.prop_restorable(prop_row, mmd_translation_element, "name_e", pose_bone.mmd_bone.name_e, index)
row.prop(pose_bone.bone, "select", text="", emboss=False, icon_only=True, icon="RESTRICT_SELECT_OFF" if pose_bone.bone.select else "RESTRICT_SELECT_ON")
row.prop(pose_bone.bone, "hide", text="", emboss=False, icon_only=True, icon="HIDE_ON" if pose_bone.bone.hide else "HIDE_OFF")
@classmethod
def collect_data(cls, mmd_translation: "MMDTranslation"):
armature_object: bpy.types.Object = FnModel.find_armature_object(mmd_translation.id_data)
pose_bone: bpy.types.PoseBone
for index, pose_bone in enumerate(armature_object.pose.bones):
if not any(c.is_visible for c in pose_bone.bone.collections):
continue
mmd_translation_element: "MMDTranslationElement" = mmd_translation.translation_elements.add()
mmd_translation_element.type = MMDTranslationElementType.BONE.name
mmd_translation_element.object = armature_object
mmd_translation_element.data_path = f"pose.bones[{index}]"
mmd_translation_element.name = pose_bone.name
mmd_translation_element.name_j = pose_bone.mmd_bone.name_j
mmd_translation_element.name_e = pose_bone.mmd_bone.name_e
@classmethod
def update_index(cls, mmd_translation_element: "MMDTranslationElement"):
bpy.context.view_layer.objects.active = mmd_translation_element.object
mmd_translation_element.object.id_data.data.bones.active = mmd_translation_element.object.path_resolve(mmd_translation_element.data_path).bone
@classmethod
def update_query(cls, mmd_translation: "MMDTranslation", filter_selected: bool, filter_visible: bool, check_blank_name: Callable[[str, str], bool]):
mmd_translation_element: "MMDTranslationElement"
for index, mmd_translation_element in enumerate(mmd_translation.translation_elements):
if mmd_translation_element.type != MMDTranslationElementType.BONE.name:
continue
pose_bone: bpy.types.PoseBone = mmd_translation_element.object.path_resolve(mmd_translation_element.data_path)
if cls.check_data_visible(filter_selected, filter_visible, pose_bone.bone.select, pose_bone.bone.hide):
continue
if check_blank_name(mmd_translation_element.name_j, mmd_translation_element.name_e):
continue
if mmd_translation.filter_restorable and not cls.is_restorable(mmd_translation_element):
continue
mmd_translation_element_index: "MMDTranslationElementIndex" = mmd_translation.filtered_translation_element_indices.add()
mmd_translation_element_index.value = index
@classmethod
def set_names(cls, mmd_translation_element: "MMDTranslationElement", name: Optional[str], name_j: Optional[str], name_e: Optional[str]):
pose_bone: bpy.types.PoseBone = mmd_translation_element.object.path_resolve(mmd_translation_element.data_path)
if name is not None:
pose_bone.name = name
if name_j is not None:
pose_bone.mmd_bone.name_j = name_j
if name_e is not None:
pose_bone.mmd_bone.name_e = name_e
@classmethod
def get_names(cls, mmd_translation_element: "MMDTranslationElement") -> Tuple[str, str, str]:
pose_bone: bpy.types.PoseBone = mmd_translation_element.object.path_resolve(mmd_translation_element.data_path)
return (pose_bone.name, pose_bone.mmd_bone.name_j, pose_bone.mmd_bone.name_e)
class MMDMorphHandler(MMDDataHandlerABC):
@classmethod
@property
def type_name(cls) -> str:
return MMDTranslationElementType.MORPH.name
@classmethod
def draw_item(cls, layout: bpy.types.UILayout, mmd_translation_element: "MMDTranslationElement", index: int):
morph: "_MorphBase" = mmd_translation_element.object.path_resolve(mmd_translation_element.data_path)
row = layout.row(align=True)
row.label(text="", icon="SHAPEKEY_DATA")
prop_row = row.row()
cls.prop_disabled(prop_row, mmd_translation_element, "name")
cls.prop_restorable(prop_row, mmd_translation_element, "name", morph.name, index)
cls.prop_restorable(prop_row, mmd_translation_element, "name_e", morph.name_e, index)
row.label(text="", icon="BLANK1")
row.label(text="", icon="BLANK1")
MORPH_DATA_PATH_EXTRACT = re.compile(r"mmd_root\.(?P<morphs_name>[^\[]*)\[(?P<index>\d*)\]")
@classmethod
def collect_data(cls, mmd_translation: "MMDTranslation"):
root_object: bpy.types.Object = mmd_translation.id_data
mmd_root: "MMDRoot" = root_object.mmd_root
for morphs_name, morphs in {
"material_morphs": mmd_root.material_morphs,
"uv_morphs": mmd_root.uv_morphs,
"bone_morphs": mmd_root.bone_morphs,
"vertex_morphs": mmd_root.vertex_morphs,
"group_morphs": mmd_root.group_morphs,
}.items():
morph: "_MorphBase"
for index, morph in enumerate(morphs):
mmd_translation_element: "MMDTranslationElement" = mmd_translation.translation_elements.add()
mmd_translation_element.type = MMDTranslationElementType.MORPH.name
mmd_translation_element.object = root_object
mmd_translation_element.data_path = f"mmd_root.{morphs_name}[{index}]"
mmd_translation_element.name = morph.name
# mmd_translation_element.name_j = None
mmd_translation_element.name_e = morph.name_e
@classmethod
def update_index(cls, mmd_translation_element: "MMDTranslationElement"):
match = cls.MORPH_DATA_PATH_EXTRACT.match(mmd_translation_element.data_path)
if not match:
return
mmd_translation_element.object.mmd_root.active_morph_type = match["morphs_name"]
mmd_translation_element.object.mmd_root.active_morph = int(match["index"])
@classmethod
def update_query(cls, mmd_translation: "MMDTranslation", filter_selected: bool, filter_visible: bool, check_blank_name: Callable[[str, str], bool]):
mmd_translation_element: "MMDTranslationElement"
for index, mmd_translation_element in enumerate(mmd_translation.translation_elements):
if mmd_translation_element.type != MMDTranslationElementType.MORPH.name:
continue
morph: "_MorphBase" = mmd_translation_element.object.path_resolve(mmd_translation_element.data_path)
if check_blank_name(morph.name, morph.name_e):
continue
if mmd_translation.filter_restorable and not cls.is_restorable(mmd_translation_element):
continue
mmd_translation_element_index: "MMDTranslationElementIndex" = mmd_translation.filtered_translation_element_indices.add()
mmd_translation_element_index.value = index
@classmethod
def set_names(cls, mmd_translation_element: "MMDTranslationElement", name: Optional[str], name_j: Optional[str], name_e: Optional[str]):
morph: "_MorphBase" = mmd_translation_element.object.path_resolve(mmd_translation_element.data_path)
if name is not None:
morph.name = name
if name_e is not None:
morph.name_e = name_e
@classmethod
def get_names(cls, mmd_translation_element: "MMDTranslationElement") -> Tuple[str, str, str]:
morph: "_MorphBase" = mmd_translation_element.object.path_resolve(mmd_translation_element.data_path)
return (morph.name, "", morph.name_e)
class MMDMaterialHandler(MMDDataHandlerABC):
@classmethod
@property
def type_name(cls) -> str:
return MMDTranslationElementType.MATERIAL.name
@classmethod
def draw_item(cls, layout: bpy.types.UILayout, mmd_translation_element: "MMDTranslationElement", index: int):
mesh_object: bpy.types.Object = mmd_translation_element.object
material: bpy.types.Material = mmd_translation_element.object.path_resolve(mmd_translation_element.data_path)
row = layout.row(align=True)
row.label(text="", icon="MATERIAL_DATA")
prop_row = row.row()
cls.prop_restorable(prop_row, mmd_translation_element, "name", material.name, index)
cls.prop_restorable(prop_row, mmd_translation_element, "name_j", material.mmd_material.name_j, index)
cls.prop_restorable(prop_row, mmd_translation_element, "name_e", material.mmd_material.name_e, index)
row.prop(mesh_object, "select", text="", emboss=False, icon_only=True, icon="RESTRICT_SELECT_OFF" if mesh_object.select_get() else "RESTRICT_SELECT_ON")
row.prop(mesh_object, "hide", text="", emboss=False, icon_only=True, icon="HIDE_ON" if mesh_object.hide_get() else "HIDE_OFF")
MATERIAL_DATA_PATH_EXTRACT = re.compile(r"data\.materials\[(?P<index>\d*)\]")
@classmethod
def collect_data(cls, mmd_translation: "MMDTranslation"):
checked_materials: Set[bpy.types.Material] = set()
mesh_object: bpy.types.Object
for mesh_object in FnModel.iterate_mesh_objects(mmd_translation.id_data):
material: bpy.types.Material
for index, material in enumerate(mesh_object.data.materials):
if material in checked_materials:
continue
checked_materials.add(material)
if not hasattr(material, "mmd_material"):
continue
mmd_translation_element: "MMDTranslationElement" = mmd_translation.translation_elements.add()
mmd_translation_element.type = MMDTranslationElementType.MATERIAL.name
mmd_translation_element.object = mesh_object
mmd_translation_element.data_path = f"data.materials[{index}]"
mmd_translation_element.name = material.name
mmd_translation_element.name_j = material.mmd_material.name_j
mmd_translation_element.name_e = material.mmd_material.name_e
@classmethod
def update_index(cls, mmd_translation_element: "MMDTranslationElement"):
id_data: bpy.types.Object = mmd_translation_element.object
bpy.context.view_layer.objects.active = id_data
match = cls.MATERIAL_DATA_PATH_EXTRACT.match(mmd_translation_element.data_path)
if not match:
return
id_data.active_material_index = int(match["index"])
@classmethod
def update_query(cls, mmd_translation: "MMDTranslation", filter_selected: bool, filter_visible: bool, check_blank_name: Callable[[str, str], bool]):
mmd_translation_element: "MMDTranslationElement"
for index, mmd_translation_element in enumerate(mmd_translation.translation_elements):
if mmd_translation_element.type != MMDTranslationElementType.MATERIAL.name:
continue
mesh_object: bpy.types.Object = mmd_translation_element.object
if cls.check_data_visible(filter_selected, filter_visible, mesh_object.select_get(), mesh_object.hide_get()):
continue
material: bpy.types.Material = mesh_object.path_resolve(mmd_translation_element.data_path)
if check_blank_name(material.mmd_material.name_j, material.mmd_material.name_e):
continue
if mmd_translation.filter_restorable and not cls.is_restorable(mmd_translation_element):
continue
mmd_translation_element_index: "MMDTranslationElementIndex" = mmd_translation.filtered_translation_element_indices.add()
mmd_translation_element_index.value = index
@classmethod
def set_names(cls, mmd_translation_element: "MMDTranslationElement", name: Optional[str], name_j: Optional[str], name_e: Optional[str]):
material: bpy.types.Material = mmd_translation_element.object.path_resolve(mmd_translation_element.data_path)
if name is not None:
material.name = name
if name_j is not None:
material.mmd_material.name_j = name_j
if name_e is not None:
material.mmd_material.name_e = name_e
@classmethod
def get_names(cls, mmd_translation_element: "MMDTranslationElement") -> Tuple[str, str, str]:
material: bpy.types.Material = mmd_translation_element.object.path_resolve(mmd_translation_element.data_path)
return (material.name, material.mmd_material.name_j, material.mmd_material.name_e)
class MMDDisplayHandler(MMDDataHandlerABC):
@classmethod
@property
def type_name(cls) -> str:
return MMDTranslationElementType.DISPLAY.name
@classmethod
def draw_item(cls, layout: bpy.types.UILayout, mmd_translation_element: "MMDTranslationElement", index: int):
bone_collection: bpy.types.BoneCollection = mmd_translation_element.object.path_resolve(mmd_translation_element.data_path)
row = layout.row(align=True)
row.label(text="", icon="GROUP_BONE")
prop_row = row.row()
cls.prop_restorable(prop_row, mmd_translation_element, "name", bone_collection.name, index)
cls.prop_disabled(prop_row, mmd_translation_element, "name")
cls.prop_disabled(prop_row, mmd_translation_element, "name_e")
row.prop(mmd_translation_element.object, "select", text="", emboss=False, icon_only=True, icon="RESTRICT_SELECT_OFF" if mmd_translation_element.object.select_get() else "RESTRICT_SELECT_ON")
row.prop(mmd_translation_element.object, "hide", text="", emboss=False, icon_only=True, icon="HIDE_ON" if mmd_translation_element.object.hide_get() else "HIDE_OFF")
DISPLAY_DATA_PATH_EXTRACT = re.compile(r"data\.collections\[(?P<index>\d*)\]")
@classmethod
def collect_data(cls, mmd_translation: "MMDTranslation"):
armature_object: bpy.types.Object = FnModel.find_armature_object(mmd_translation.id_data)
bone_collection: bpy.types.BoneCollection
for index, bone_collection in enumerate(armature_object.data.collections):
mmd_translation_element: "MMDTranslationElement" = mmd_translation.translation_elements.add()
mmd_translation_element.type = MMDTranslationElementType.DISPLAY.name
mmd_translation_element.object = armature_object
mmd_translation_element.data_path = f"data.collections[{index}]"
mmd_translation_element.name = bone_collection.name
# mmd_translation_element.name_j = None
# mmd_translation_element.name_e = None
@classmethod
def update_index(cls, mmd_translation_element: "MMDTranslationElement"):
id_data: bpy.types.Object = mmd_translation_element.object
bpy.context.view_layer.objects.active = id_data
match = cls.DISPLAY_DATA_PATH_EXTRACT.match(mmd_translation_element.data_path)
if not match:
return
id_data.data.collections.active_index = int(match["index"])
@classmethod
def update_query(cls, mmd_translation: "MMDTranslation", filter_selected: bool, filter_visible: bool, check_blank_name: Callable[[str, str], bool]):
mmd_translation_element: "MMDTranslationElement"
for index, mmd_translation_element in enumerate(mmd_translation.translation_elements):
if mmd_translation_element.type != MMDTranslationElementType.DISPLAY.name:
continue
obj: bpy.types.Object = mmd_translation_element.object
if cls.check_data_visible(filter_selected, filter_visible, obj.select_get(), obj.hide_get()):
continue
bone_collection: bpy.types.BoneCollection = obj.path_resolve(mmd_translation_element.data_path)
if check_blank_name(bone_collection.name, ""):
continue
if mmd_translation.filter_restorable and not cls.is_restorable(mmd_translation_element):
continue
mmd_translation_element_index: "MMDTranslationElementIndex" = mmd_translation.filtered_translation_element_indices.add()
mmd_translation_element_index.value = index
@classmethod
def set_names(cls, mmd_translation_element: "MMDTranslationElement", name: Optional[str], name_j: Optional[str], name_e: Optional[str]):
bone_collection: bpy.types.BoneCollection = mmd_translation_element.object.path_resolve(mmd_translation_element.data_path)
if name is not None:
bone_collection.name = name
@classmethod
def get_names(cls, mmd_translation_element: "MMDTranslationElement") -> Tuple[str, str, str]:
bone_collection: bpy.types.BoneCollection = mmd_translation_element.object.path_resolve(mmd_translation_element.data_path)
return (bone_collection.name, "", "")
class MMDPhysicsHandler(MMDDataHandlerABC):
@classmethod
@property
def type_name(cls) -> str:
return MMDTranslationElementType.PHYSICS.name
@classmethod
def draw_item(cls, layout: bpy.types.UILayout, mmd_translation_element: "MMDTranslationElement", index: int):
obj: bpy.types.Object = mmd_translation_element.object
if FnModel.is_rigid_body_object(obj):
icon = "MESH_ICOSPHERE"
mmd_object = obj.mmd_rigid
elif FnModel.is_joint_object(obj):
icon = "CONSTRAINT"
mmd_object = obj.mmd_joint
row = layout.row(align=True)
row.label(text="", icon=icon)
prop_row = row.row()
cls.prop_restorable(prop_row, mmd_translation_element, "name", obj.name, index)
cls.prop_restorable(prop_row, mmd_translation_element, "name_j", mmd_object.name_j, index)
cls.prop_restorable(prop_row, mmd_translation_element, "name_e", mmd_object.name_e, index)
row.prop(obj, "select", text="", emboss=False, icon_only=True, icon="RESTRICT_SELECT_OFF" if obj.select_get() else "RESTRICT_SELECT_ON")
row.prop(obj, "hide", text="", emboss=False, icon_only=True, icon="HIDE_ON" if obj.hide_get() else "HIDE_OFF")
@classmethod
def collect_data(cls, mmd_translation: "MMDTranslation"):
root_object: bpy.types.Object = mmd_translation.id_data
model = Model(root_object)
obj: bpy.types.Object
for obj in model.rigidBodies():
mmd_translation_element: "MMDTranslationElement" = mmd_translation.translation_elements.add()
mmd_translation_element.type = MMDTranslationElementType.PHYSICS.name
mmd_translation_element.object = obj
mmd_translation_element.data_path = "mmd_rigid"
mmd_translation_element.name = obj.name
mmd_translation_element.name_j = obj.mmd_rigid.name_j
mmd_translation_element.name_e = obj.mmd_rigid.name_e
obj: bpy.types.Object
for obj in model.joints():
mmd_translation_element: "MMDTranslationElement" = mmd_translation.translation_elements.add()
mmd_translation_element.type = MMDTranslationElementType.PHYSICS.name
mmd_translation_element.object = obj
mmd_translation_element.data_path = "mmd_joint"
mmd_translation_element.name = obj.name
mmd_translation_element.name_j = obj.mmd_joint.name_j
mmd_translation_element.name_e = obj.mmd_joint.name_e
@classmethod
def update_index(cls, mmd_translation_element: "MMDTranslationElement"):
bpy.context.view_layer.objects.active = mmd_translation_element.object
@classmethod
def update_query(cls, mmd_translation: "MMDTranslation", filter_selected: bool, filter_visible: bool, check_blank_name: Callable[[str, str], bool]):
mmd_translation_element: "MMDTranslationElement"
for index, mmd_translation_element in enumerate(mmd_translation.translation_elements):
if mmd_translation_element.type != MMDTranslationElementType.PHYSICS.name:
continue
obj: bpy.types.Object = mmd_translation_element.object
if cls.check_data_visible(filter_selected, filter_visible, obj.select_get(), obj.hide_get()):
continue
if FnModel.is_rigid_body_object(obj):
mmd_object = obj.mmd_rigid
elif FnModel.is_joint_object(obj):
mmd_object = obj.mmd_joint
if check_blank_name(mmd_object.name_j, mmd_object.name_e):
continue
if mmd_translation.filter_restorable and not cls.is_restorable(mmd_translation_element):
continue
mmd_translation_element_index: "MMDTranslationElementIndex" = mmd_translation.filtered_translation_element_indices.add()
mmd_translation_element_index.value = index
@classmethod
def set_names(cls, mmd_translation_element: "MMDTranslationElement", name: Optional[str], name_j: Optional[str], name_e: Optional[str]):
obj: bpy.types.Object = mmd_translation_element.object
if FnModel.is_rigid_body_object(obj):
mmd_object = obj.mmd_rigid
elif FnModel.is_joint_object(obj):
mmd_object = obj.mmd_joint
if name is not None:
obj.name = name
if name_j is not None:
mmd_object.name_j = name_j
if name_e is not None:
mmd_object.name_e = name_e
@classmethod
def get_names(cls, mmd_translation_element: "MMDTranslationElement") -> Tuple[str, str, str]:
obj: bpy.types.Object = mmd_translation_element.object
if FnModel.is_rigid_body_object(obj):
mmd_object = obj.mmd_rigid
elif FnModel.is_joint_object(obj):
mmd_object = obj.mmd_joint
return (obj.name, mmd_object.name_j, mmd_object.name_e)
class MMDInfoHandler(MMDDataHandlerABC):
@classmethod
@property
def type_name(cls) -> str:
return MMDTranslationElementType.INFO.name
TYPE_TO_ICONS = {
"EMPTY": "EMPTY_DATA",
"ARMATURE": "ARMATURE_DATA",
"MESH": "MESH_DATA",
}
@classmethod
def draw_item(cls, layout: bpy.types.UILayout, mmd_translation_element: "MMDTranslationElement", index: int):
info_object: bpy.types.Object = mmd_translation_element.object
row = layout.row(align=True)
row.label(text="", icon=MMDInfoHandler.TYPE_TO_ICONS.get(info_object.type, "OBJECT_DATA"))
prop_row = row.row()
cls.prop_restorable(prop_row, mmd_translation_element, "name", info_object.name, index)
cls.prop_disabled(prop_row, mmd_translation_element, "name")
cls.prop_disabled(prop_row, mmd_translation_element, "name_e")
row.prop(info_object, "select", text="", emboss=False, icon_only=True, icon="RESTRICT_SELECT_OFF" if info_object.select_get() else "RESTRICT_SELECT_ON")
row.prop(info_object, "hide", text="", emboss=False, icon_only=True, icon="HIDE_ON" if info_object.hide_get() else "HIDE_OFF")
@classmethod
def collect_data(cls, mmd_translation: "MMDTranslation"):
root_object: bpy.types.Object = mmd_translation.id_data
info_objects = [root_object]
armature_object = FnModel.find_armature_object(root_object)
if armature_object is not None:
info_objects.append(armature_object)
for info_object in itertools.chain(info_objects, FnModel.iterate_mesh_objects(root_object)):
mmd_translation_element: "MMDTranslationElement" = mmd_translation.translation_elements.add()
mmd_translation_element.type = MMDTranslationElementType.INFO.name
mmd_translation_element.object = info_object
mmd_translation_element.data_path = ""
mmd_translation_element.name = info_object.name
# mmd_translation_element.name_j = None
# mmd_translation_element.name_e = None
@classmethod
def update_index(cls, mmd_translation_element: "MMDTranslationElement"):
bpy.context.view_layer.objects.active = mmd_translation_element.object
@classmethod
def update_query(cls, mmd_translation: "MMDTranslation", filter_selected: bool, filter_visible: bool, check_blank_name: Callable[[str, str], bool]):
mmd_translation_element: "MMDTranslationElement"
for index, mmd_translation_element in enumerate(mmd_translation.translation_elements):
if mmd_translation_element.type != MMDTranslationElementType.INFO.name:
continue
info_object: bpy.types.Object = mmd_translation_element.object
if cls.check_data_visible(filter_selected, filter_visible, info_object.select_get(), info_object.hide_get()):
continue
if check_blank_name(info_object.name, ""):
continue
if mmd_translation.filter_restorable and not cls.is_restorable(mmd_translation_element):
continue
mmd_translation_element_index: "MMDTranslationElementIndex" = mmd_translation.filtered_translation_element_indices.add()
mmd_translation_element_index.value = index
@classmethod
def set_names(cls, mmd_translation_element: "MMDTranslationElement", name: Optional[str], name_j: Optional[str], name_e: Optional[str]):
info_object: bpy.types.Object = mmd_translation_element.object
if name is not None:
info_object.name = name
@classmethod
def get_names(cls, mmd_translation_element: "MMDTranslationElement") -> Tuple[str, str, str]:
info_object: bpy.types.Object = mmd_translation_element.object
return (info_object.name, "", "")
MMD_DATA_HANDLERS: Set[MMDDataHandlerABC] = {
MMDBoneHandler,
MMDMorphHandler,
MMDMaterialHandler,
MMDDisplayHandler,
MMDPhysicsHandler,
MMDInfoHandler,
}
MMD_DATA_TYPE_TO_HANDLERS: Dict[str, MMDDataHandlerABC] = {h.type_name: h for h in MMD_DATA_HANDLERS}
class FnTranslations:
@staticmethod
def apply_translations(root_object: bpy.types.Object):
mmd_translation: "MMDTranslation" = root_object.mmd_root.translation
mmd_translation_element_index: "MMDTranslationElementIndex"
for mmd_translation_element_index in mmd_translation.filtered_translation_element_indices:
mmd_translation_element: "MMDTranslationElement" = mmd_translation.translation_elements[mmd_translation_element_index.value]
handler: MMDDataHandlerABC = MMD_DATA_TYPE_TO_HANDLERS[mmd_translation_element.type]
name, name_j, name_e = handler.get_names(mmd_translation_element)
handler.set_names(
mmd_translation_element,
mmd_translation_element.name if mmd_translation_element.name != name else None,
mmd_translation_element.name_j if mmd_translation_element.name_j != name_j else None,
mmd_translation_element.name_e if mmd_translation_element.name_e != name_e else None,
)
@staticmethod
def execute_translation_batch(root_object: bpy.types.Object) -> Tuple[Dict[str, str], Optional[bpy.types.Text]]:
mmd_translation: "MMDTranslation" = root_object.mmd_root.translation
batch_operation_script = mmd_translation.batch_operation_script
if not batch_operation_script:
return ({}, None)
translator = DictionaryEnum.get_translator(mmd_translation.dictionary)
def translate(name: str) -> str:
if translator:
return translator.translate(name, name)
return name
batch_operation_script_ast = compile(mmd_translation.batch_operation_script, "<string>", "eval")
batch_operation_target: str = mmd_translation.batch_operation_target
mmd_translation_element_index: "MMDTranslationElementIndex"
for mmd_translation_element_index in mmd_translation.filtered_translation_element_indices:
mmd_translation_element: "MMDTranslationElement" = mmd_translation.translation_elements[mmd_translation_element_index.value]
handler: MMDDataHandlerABC = MMD_DATA_TYPE_TO_HANDLERS[mmd_translation_element.type]
name = mmd_translation_element.name
name_j = mmd_translation_element.name_j
name_e = mmd_translation_element.name_e
org_name, org_name_j, org_name_e = handler.get_names(mmd_translation_element)
# pylint: disable=eval-used
result_name = str(
eval(
batch_operation_script_ast,
{"__builtins__": {}},
{
"to_english": translate,
"to_mmd_lr": convertLRToName,
"to_blender_lr": convertNameToLR,
"name": name,
"name_j": name_j if name_j != "" else name,
"name_e": name_e if name_e != "" else name,
"org_name": org_name,
"org_name_j": org_name_j,
"org_name_e": org_name_e,
},
)
)
if batch_operation_target == "BLENDER":
mmd_translation_element.name = result_name
elif batch_operation_target == "JAPANESE":
mmd_translation_element.name_j = result_name
elif batch_operation_target == "ENGLISH":
mmd_translation_element.name_e = result_name
return (translator.fails, translator.save_fails())
@staticmethod
def update_index(mmd_translation: "MMDTranslation"):
if mmd_translation.filtered_translation_element_indices_active_index < 0:
return
mmd_translation_element_index: "MMDTranslationElementIndex" = mmd_translation.filtered_translation_element_indices[mmd_translation.filtered_translation_element_indices_active_index]
mmd_translation_element: "MMDTranslationElement" = mmd_translation.translation_elements[mmd_translation_element_index.value]
MMD_DATA_TYPE_TO_HANDLERS[mmd_translation_element.type].update_index(mmd_translation_element)
@staticmethod
def collect_data(mmd_translation: "MMDTranslation"):
mmd_translation.translation_elements.clear()
for handler in MMD_DATA_HANDLERS:
handler.collect_data(mmd_translation)
@staticmethod
def update_query(mmd_translation: "MMDTranslation"):
mmd_translation.filtered_translation_element_indices.clear()
mmd_translation.filtered_translation_element_indices_active_index = -1
filter_japanese_blank: bool = mmd_translation.filter_japanese_blank
filter_english_blank: bool = mmd_translation.filter_english_blank
filter_selected: bool = mmd_translation.filter_selected
filter_visible: bool = mmd_translation.filter_visible
def check_blank_name(name_j: str, name_e: str) -> bool:
return filter_japanese_blank and name_j or filter_english_blank and name_e
for handler in MMD_DATA_HANDLERS:
if handler.type_name in mmd_translation.filter_types:
handler.update_query(mmd_translation, filter_selected, filter_visible, check_blank_name)
@staticmethod
def clear_data(mmd_translation: "MMDTranslation"):
mmd_translation.translation_elements.clear()
mmd_translation.filtered_translation_element_indices.clear()
mmd_translation.filtered_translation_element_indices_active_index = -1
mmd_translation.filter_restorable = False
+6
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@@ -0,0 +1,6 @@
# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import logging
import math
import os
from typing import Union
import bpy
from mathutils import Quaternion, Vector
from ... import utils
from .. import vmd
from ..camera import MMDCamera
from ..lamp import MMDLamp
class _MirrorMapper:
def __init__(self, data_map=None):
from ...operators.view import FlipPose
self.__data_map = data_map
self.__flip_name = FlipPose.flip_name
def get(self, name, default=None):
return self.__data_map.get(self.__flip_name(name), None) or self.__data_map.get(name, default)
@staticmethod
def get_location(location):
return (-location[0], location[1], location[2])
@staticmethod
def get_rotation(rotation_xyzw):
return (rotation_xyzw[0], -rotation_xyzw[1], -rotation_xyzw[2], rotation_xyzw[3])
@staticmethod
def get_rotation3(rotation_xyz):
return (rotation_xyz[0], -rotation_xyz[1], -rotation_xyz[2])
class RenamedBoneMapper:
def __init__(self, armObj=None, rename_LR_bones=True, use_underscore=False, translator=None):
self.__pose_bones = armObj.pose.bones if armObj else None
self.__rename_LR_bones = rename_LR_bones
self.__use_underscore = use_underscore
self.__translator = translator
def init(self, armObj):
self.__pose_bones = armObj.pose.bones
return self
def get(self, bone_name, default=None):
bl_bone_name = bone_name
if self.__rename_LR_bones:
bl_bone_name = utils.convertNameToLR(bl_bone_name, self.__use_underscore)
if self.__translator:
bl_bone_name = self.__translator.translate(bl_bone_name)
return self.__pose_bones.get(bl_bone_name, default)
class _InterpolationHelper:
def __init__(self, mat):
self.__indices = indices = [0, 1, 2]
l = sorted((-abs(mat[i][j]), i, j) for i in range(3) for j in range(3))
_, i, j = l[0]
if i != j:
indices[i], indices[j] = indices[j], indices[i]
_, i, j = next(k for k in l if k[1] != i and k[2] != j)
if indices[i] != j:
idx = indices.index(j)
indices[i], indices[idx] = indices[idx], indices[i]
def convert(self, interpolation_xyz):
return (interpolation_xyz[i] for i in self.__indices)
class BoneConverter:
def __init__(self, pose_bone, scale, invert=False):
mat = pose_bone.bone.matrix_local.to_3x3()
mat[1], mat[2] = mat[2].copy(), mat[1].copy()
self.__mat = mat.transposed()
self.__scale = scale
if invert:
self.__mat.invert()
self.convert_interpolation = _InterpolationHelper(self.__mat).convert
def convert_location(self, location):
return (self.__mat @ Vector(location)) * self.__scale
def convert_rotation(self, rotation_xyzw):
rot = Quaternion()
rot.x, rot.y, rot.z, rot.w = rotation_xyzw
return Quaternion((self.__mat @ rot.axis) * -1, rot.angle).normalized()
class BoneConverterPoseMode:
def __init__(self, pose_bone, scale, invert=False):
mat = pose_bone.matrix.to_3x3()
mat[1], mat[2] = mat[2].copy(), mat[1].copy()
self.__mat = mat.transposed()
self.__scale = scale
self.__mat_rot = pose_bone.matrix_basis.to_3x3()
self.__mat_loc = self.__mat_rot @ self.__mat
self.__offset = pose_bone.location.copy()
self.convert_location = self._convert_location
self.convert_rotation = self._convert_rotation
if invert:
self.__mat.invert()
self.__mat_rot.invert()
self.__mat_loc.invert()
self.convert_location = self._convert_location_inverted
self.convert_rotation = self._convert_rotation_inverted
self.convert_interpolation = _InterpolationHelper(self.__mat_loc).convert
def _convert_location(self, location):
return self.__offset + (self.__mat_loc @ Vector(location)) * self.__scale
def _convert_rotation(self, rotation_xyzw):
rot = Quaternion()
rot.x, rot.y, rot.z, rot.w = rotation_xyzw
rot = Quaternion((self.__mat @ rot.axis) * -1, rot.angle)
return (self.__mat_rot @ rot.to_matrix()).to_quaternion()
def _convert_location_inverted(self, location):
return (self.__mat_loc @ (Vector(location) - self.__offset)) * self.__scale
def _convert_rotation_inverted(self, rotation_xyzw):
rot = Quaternion()
rot.x, rot.y, rot.z, rot.w = rotation_xyzw
rot = (self.__mat_rot @ rot.to_matrix()).to_quaternion()
return Quaternion((self.__mat @ rot.axis) * -1, rot.angle).normalized()
class _FnBezier:
@classmethod
def from_fcurve(cls, kp0, kp1):
p0, p1, p2, p3 = kp0.co, kp0.handle_right, kp1.handle_left, kp1.co
if p1.x > p3.x:
t = (p3.x - p0.x) / (p1.x - p0.x)
p1 = (1 - t) * p0 + p1 * t
if p0.x > p2.x:
t = (p3.x - p0.x) / (p3.x - p2.x)
p2 = (1 - t) * p3 + p2 * t
return cls(p0, p1, p2, p3)
def __init__(self, p0, p1, p2, p3): # assuming VMD's bezier or F-Curve's bezier
# assert(p0.x <= p1.x <= p3.x and p0.x <= p2.x <= p3.x)
self._p0, self._p1, self._p2, self._p3 = p0, p1, p2, p3
@property
def points(self):
return self._p0, self._p1, self._p2, self._p3
def split(self, t):
p0, p1, p2, p3 = self._p0, self._p1, self._p2, self._p3
p01t = (1 - t) * p0 + t * p1
p12t = (1 - t) * p1 + t * p2
p23t = (1 - t) * p2 + t * p3
p012t = (1 - t) * p01t + t * p12t
p123t = (1 - t) * p12t + t * p23t
pt = (1 - t) * p012t + t * p123t
return _FnBezier(p0, p01t, p012t, pt), _FnBezier(pt, p123t, p23t, p3), pt
def evaluate(self, t):
p0, p1, p2, p3 = self._p0, self._p1, self._p2, self._p3
p01t = (1 - t) * p0 + t * p1
p12t = (1 - t) * p1 + t * p2
p23t = (1 - t) * p2 + t * p3
p012t = (1 - t) * p01t + t * p12t
p123t = (1 - t) * p12t + t * p23t
return (1 - t) * p012t + t * p123t
def split_by_x(self, x):
return self.split(self.axis_to_t(x))
def evaluate_by_x(self, x):
return self.evaluate(self.axis_to_t(x))
def axis_to_t(self, val, axis=0):
p0, p1, p2, p3 = self._p0[axis], self._p1[axis], self._p2[axis], self._p3[axis]
a = p3 - p0 + 3 * (p1 - p2)
b = 3 * (p0 - 2 * p1 + p2)
c = 3 * (p1 - p0)
d = p0 - val
return next(self.__find_roots(a, b, c, d))
def find_critical(self):
p0, p1, p2, p3 = self._p0.y, self._p1.y, self._p2.y, self._p3.y
p_min, p_max = (p0, p3) if p0 < p3 else (p3, p0)
if p1 > p_max or p1 < p_min or p2 > p_max or p2 < p_min:
a = 3 * (p3 - p0 + 3 * (p1 - p2))
b = 6 * (p0 - 2 * p1 + p2)
c = 3 * (p1 - p0)
yield from self.__find_roots(0, a, b, c)
@staticmethod
def __find_roots(a, b, c, d): # a*t*t*t + b*t*t + c*t + d = 0
# TODO fix precision errors (ex: t=0 and t=1) and improve performance
if a == 0:
if b == 0:
t = -d / c
if 0 <= t <= 1:
yield t
else:
D = c * c - 4 * b * d
if D < 0:
return
D = D**0.5
b2 = 2 * b
t = (-c + D) / b2
if 0 <= t <= 1:
yield t
t = (-c - D) / b2
if 0 <= t <= 1:
yield t
return
def _sqrt3(v):
return -((-v) ** (1 / 3)) if v < 0 else v ** (1 / 3)
A = b * c / (6 * a * a) - b * b * b / (27 * a * a * a) - d / (2 * a)
B = c / (3 * a) - b * b / (9 * a * a)
b_3a = -b / (3 * a)
D = A * A + B * B * B
if D > 0:
D = D**0.5
t = b_3a + _sqrt3(A + D) + _sqrt3(A - D)
if 0 <= t <= 1:
yield t
elif D == 0:
t = b_3a + _sqrt3(A) * 2
if 0 <= t <= 1:
yield t
t = b_3a - _sqrt3(A)
if 0 <= t <= 1:
yield t
else:
R = A / (-B * B * B) ** 0.5
t = b_3a + 2 * (-B) ** 0.5 * math.cos(math.acos(R) / 3)
if 0 <= t <= 1:
yield t
t = b_3a + 2 * (-B) ** 0.5 * math.cos((math.acos(R) + 2 * math.pi) / 3)
if 0 <= t <= 1:
yield t
t = b_3a + 2 * (-B) ** 0.5 * math.cos((math.acos(R) - 2 * math.pi) / 3)
if 0 <= t <= 1:
yield t
class HasAnimationData:
animation_data: bpy.types.AnimData
class VMDImporter:
def __init__(self, filepath, scale=1.0, bone_mapper=None, use_pose_mode=False, convert_mmd_camera=True, convert_mmd_lamp=True, frame_margin=5, use_mirror=False, use_NLA=False):
self.__vmdFile = vmd.File()
self.__vmdFile.load(filepath=filepath)
logging.debug(str(self.__vmdFile.header))
self.__scale = scale
self.__convert_mmd_camera = convert_mmd_camera
self.__convert_mmd_lamp = convert_mmd_lamp
self.__bone_mapper = bone_mapper
self.__bone_util_cls = BoneConverterPoseMode if use_pose_mode else BoneConverter
self.__frame_margin = frame_margin + 1
self.__mirror = use_mirror
self.__use_NLA = use_NLA
@staticmethod
def __minRotationDiff(prev_q, curr_q):
t1 = (prev_q.w - curr_q.w) ** 2 + (prev_q.x - curr_q.x) ** 2 + (prev_q.y - curr_q.y) ** 2 + (prev_q.z - curr_q.z) ** 2
t2 = (prev_q.w + curr_q.w) ** 2 + (prev_q.x + curr_q.x) ** 2 + (prev_q.y + curr_q.y) ** 2 + (prev_q.z + curr_q.z) ** 2
# t1 = prev_q.rotation_difference(curr_q).angle
# t2 = prev_q.rotation_difference(-curr_q).angle
return -curr_q if t2 < t1 else curr_q
@staticmethod
def __setInterpolation(bezier, kp0, kp1):
if bezier[0] == bezier[1] and bezier[2] == bezier[3]:
kp0.interpolation = "LINEAR"
else:
kp0.interpolation = "BEZIER"
kp0.handle_right_type = "FREE"
kp1.handle_left_type = "FREE"
d = (kp1.co - kp0.co) / 127.0
kp0.handle_right = kp0.co + Vector((d.x * bezier[0], d.y * bezier[1]))
kp1.handle_left = kp0.co + Vector((d.x * bezier[2], d.y * bezier[3]))
@staticmethod
def __fixFcurveHandles(fcurve):
kp0 = fcurve.keyframe_points[0]
kp0.handle_left_type = "FREE"
kp0.handle_left = kp0.co + Vector((-1, 0))
kp = fcurve.keyframe_points[-1]
kp.handle_right_type = "FREE"
kp.handle_right = kp.co + Vector((1, 0))
@staticmethod
def __keyframe_insert_inner(fcurves: bpy.types.ActionFCurves, path: str, index: int, frame: float, value: float):
fcurve = fcurves.find(path, index=index)
if fcurve is None:
fcurve = fcurves.new(path, index=index)
fcurve.keyframe_points.insert(frame, value, options={"FAST"})
@staticmethod
def __keyframe_insert(fcurves: bpy.types.ActionFCurves, path: str, frame: float, value: Union[int, float, Vector]):
if isinstance(value, (int, float)):
VMDImporter.__keyframe_insert_inner(fcurves, path, 0, frame, value)
elif isinstance(value, Vector):
VMDImporter.__keyframe_insert_inner(fcurves, path, 0, frame, value[0])
VMDImporter.__keyframe_insert_inner(fcurves, path, 1, frame, value[1])
VMDImporter.__keyframe_insert_inner(fcurves, path, 2, frame, value[2])
else:
raise TypeError("Unsupported type: {0}".format(type(value)))
def __getBoneConverter(self, bone):
converter = self.__bone_util_cls(bone, self.__scale)
mode = bone.rotation_mode
compatible_quaternion = self.__minRotationDiff
class _ConverterWrap:
convert_location = converter.convert_location
convert_interpolation = converter.convert_interpolation
if mode == "QUATERNION":
convert_rotation = converter.convert_rotation
compatible_rotation = compatible_quaternion
elif mode == "AXIS_ANGLE":
@staticmethod
def convert_rotation(rot):
(x, y, z), angle = converter.convert_rotation(rot).to_axis_angle()
return (angle, x, y, z)
@staticmethod
def compatible_rotation(prev, curr):
angle, x, y, z = curr
if prev[1] * x + prev[2] * y + prev[3] * z < 0:
angle, x, y, z = -angle, -x, -y, -z
angle_diff = prev[0] - angle
if abs(angle_diff) > math.pi:
pi_2 = math.pi * 2
bias = -0.5 if angle_diff < 0 else 0.5
angle += int(bias + angle_diff / pi_2) * pi_2
return (angle, x, y, z)
else:
convert_rotation = lambda rot: converter.convert_rotation(rot).to_euler(mode)
compatible_rotation = lambda prev, curr: curr.make_compatible(prev) or curr
return _ConverterWrap
def __assign_action(self, target: Union[bpy.types.ID, HasAnimationData], action: bpy.types.Action):
if target.animation_data is None:
target.animation_data_create()
if not self.__use_NLA:
target.animation_data.action = action
else:
frame_current = bpy.context.scene.frame_current
target_track: bpy.types.NlaTrack = target.animation_data.nla_tracks.new()
target_track.name = action.name
target_strip = target_track.strips.new(action.name, frame_current, action)
target_strip.blend_type = "COMBINE"
def __assignToArmature(self, armObj, action_name=None):
boneAnim = self.__vmdFile.boneAnimation
logging.info("---- bone animations:%5d target: %s", len(boneAnim), armObj.name)
if len(boneAnim) < 1:
return
action_name = action_name or armObj.name
action = bpy.data.actions.new(name=action_name)
extra_frame = 1 if self.__frame_margin > 1 else 0
pose_bones = armObj.pose.bones
if self.__bone_mapper:
pose_bones = self.__bone_mapper(armObj)
_loc = _rot = lambda i: i
if self.__mirror:
pose_bones = _MirrorMapper(pose_bones)
_loc, _rot = _MirrorMapper.get_location, _MirrorMapper.get_rotation
class _Dummy:
pass
dummy_keyframe_points = iter(lambda: _Dummy, None)
prop_rot_map = {"QUATERNION": "rotation_quaternion", "AXIS_ANGLE": "rotation_axis_angle"}
bone_name_table = {}
for name, keyFrames in boneAnim.items():
num_frame = len(keyFrames)
if num_frame < 1:
continue
bone = pose_bones.get(name, None)
if bone is None:
logging.warning("WARNING: not found bone %s (%d frames)", name, len(keyFrames))
continue
logging.info("(bone) frames:%5d name: %s", len(keyFrames), name)
assert bone_name_table.get(bone.name, name) == name
bone_name_table[bone.name] = name
fcurves = [dummy_keyframe_points] * 7 # x, y, z, r0, r1, r2, (r3)
data_path_rot = prop_rot_map.get(bone.rotation_mode, "rotation_euler")
bone_rotation = getattr(bone, data_path_rot)
default_values = list(bone.location) + list(bone_rotation)
data_path = 'pose.bones["%s"].location' % bone.name
for axis_i in range(3):
fcurves[axis_i] = action.fcurves.new(data_path=data_path, index=axis_i, action_group=bone.name)
data_path = 'pose.bones["%s"].%s' % (bone.name, data_path_rot)
for axis_i in range(len(bone_rotation)):
fcurves[3 + axis_i] = action.fcurves.new(data_path=data_path, index=axis_i, action_group=bone.name)
for i in range(len(default_values)):
c = fcurves[i]
c.keyframe_points.add(extra_frame + num_frame)
kp_iter = iter(c.keyframe_points)
if extra_frame:
kp = next(kp_iter)
kp.co = (1, default_values[i])
kp.interpolation = "LINEAR"
fcurves[i] = kp_iter
converter = self.__getBoneConverter(bone)
prev_rot = bone_rotation if extra_frame else None
prev_kps, indices = None, tuple(converter.convert_interpolation((0, 16, 32))) + (48,) * len(bone_rotation)
keyFrames.sort(key=lambda x: x.frame_number)
for k, x, y, z, r0, r1, r2, r3 in zip(keyFrames, *fcurves):
frame = k.frame_number + self.__frame_margin
loc = converter.convert_location(_loc(k.location))
curr_rot = converter.convert_rotation(_rot(k.rotation))
if prev_rot is not None:
curr_rot = converter.compatible_rotation(prev_rot, curr_rot)
# FIXME the rotation interpolation has slightly different result
# Blender: rot(x) = prev_rot*(1 - bezier(t)) + curr_rot*bezier(t)
# MMD: rot(x) = prev_rot.slerp(curr_rot, factor=bezier(t))
prev_rot = curr_rot
x.co = (frame, loc[0])
y.co = (frame, loc[1])
z.co = (frame, loc[2])
r0.co = (frame, curr_rot[0])
r1.co = (frame, curr_rot[1])
r2.co = (frame, curr_rot[2])
r3.co = (frame, curr_rot[-1])
curr_kps = (x, y, z, r0, r1, r2, r3)
if prev_kps is not None:
interp = k.interp
for idx, prev_kp, kp in zip(indices, prev_kps, curr_kps):
self.__setInterpolation(interp[idx : idx + 16 : 4], prev_kp, kp)
prev_kps = curr_kps
for c in action.fcurves:
self.__fixFcurveHandles(c)
# property animation
propertyAnim = self.__vmdFile.propertyAnimation
if len(propertyAnim) > 0:
logging.info("---- IK animations:%5d target: %s", len(propertyAnim), armObj.name)
for keyFrame in propertyAnim:
logging.debug("(IK) frame:%5d list: %s", keyFrame.frame_number, keyFrame.ik_states)
frame = keyFrame.frame_number + self.__frame_margin
for ikName, enable in keyFrame.ik_states:
bone = pose_bones.get(ikName, None)
if not bone:
continue
self.__keyframe_insert(action.fcurves, f'pose.bones["{bone.name}"].mmd_ik_toggle', frame, enable)
self.__assign_action(armObj, action)
# Ensure IK toggle state is set based on the first frame of VMD animation
if len(propertyAnim) > 0:
# Collect IK states from the first frame
first_frame_ik_states = {}
first_frame = float('inf')
for keyFrame in propertyAnim:
frame_num = keyFrame.frame_number
if frame_num < first_frame:
first_frame = frame_num
for ikName, enable in keyFrame.ik_states:
first_frame_ik_states[ikName] = enable
elif frame_num == first_frame:
for ikName, enable in keyFrame.ik_states:
if ikName not in first_frame_ik_states:
first_frame_ik_states[ikName] = enable
# Set the mmd_ik_toggle property for each bone based on the collected first frame IK states
for ikName, enable in first_frame_ik_states.items():
bone = pose_bones.get(ikName, None)
if bone and bone.mmd_ik_toggle != enable:
bone.mmd_ik_toggle = enable # This will trigger the _pose_bone_update_mmd_ik_toggle method
def __assignToMesh(self, meshObj, action_name=None):
shapeKeyAnim = self.__vmdFile.shapeKeyAnimation
logging.info("---- morph animations:%5d target: %s", len(shapeKeyAnim), meshObj.name)
if len(shapeKeyAnim) < 1:
return
action_name = action_name or meshObj.name
action = bpy.data.actions.new(name=action_name)
mirror_map = _MirrorMapper(meshObj.data.shape_keys.key_blocks) if self.__mirror else {}
shapeKeyDict = {k: mirror_map.get(k, v) for k, v in meshObj.data.shape_keys.key_blocks.items()}
from math import ceil, floor
for name, keyFrames in shapeKeyAnim.items():
if name not in shapeKeyDict:
logging.warning("WARNING: not found shape key %s (%d frames)", name, len(keyFrames))
continue
logging.info("(mesh) frames:%5d name: %s", len(keyFrames), name)
shapeKey = shapeKeyDict[name]
fcurve = action.fcurves.new(data_path='key_blocks["%s"].value' % shapeKey.name)
fcurve.keyframe_points.add(len(keyFrames))
keyFrames.sort(key=lambda x: x.frame_number)
for k, v in zip(keyFrames, fcurve.keyframe_points):
v.co = (k.frame_number + self.__frame_margin, k.weight)
v.interpolation = "LINEAR"
weights = tuple(i.weight for i in keyFrames)
shapeKey.slider_min = min(shapeKey.slider_min, floor(min(weights)))
shapeKey.slider_max = max(shapeKey.slider_max, ceil(max(weights)))
self.__assign_action(meshObj.data.shape_keys, action)
def __assignToRoot(self, rootObj, action_name=None):
propertyAnim = self.__vmdFile.propertyAnimation
logging.info("---- display animations:%5d target: %s", len(propertyAnim), rootObj.name)
if len(propertyAnim) < 1:
return
action_name = action_name or rootObj.name
action = bpy.data.actions.new(name=action_name)
logging.debug("(Display) list(frame, show): %s", [(keyFrame.frame_number, bool(keyFrame.visible)) for keyFrame in propertyAnim])
for keyFrame in propertyAnim:
self.__keyframe_insert(action.fcurves, "mmd_root.show_meshes", keyFrame.frame_number + self.__frame_margin, float(keyFrame.visible))
self.__assign_action(rootObj, action)
@staticmethod
def detectCameraChange(fcurve, threshold=10.0):
frames = list(fcurve.keyframe_points)
frameCount = len(frames)
frames.sort(key=lambda x: x.co[0])
for i, f in enumerate(frames):
if i + 1 < frameCount:
n = frames[i + 1]
if n.co[0] - f.co[0] <= 1.0 and abs(f.co[1] - n.co[1]) > threshold:
f.interpolation = "CONSTANT"
def __assignToCamera(self, cameraObj, action_name=None):
mmdCameraInstance = MMDCamera.convertToMMDCamera(cameraObj, self.__scale)
mmdCamera = mmdCameraInstance.object()
cameraObj = mmdCameraInstance.camera()
cameraAnim = self.__vmdFile.cameraAnimation
logging.info("(camera) frames:%5d name: %s", len(cameraAnim), mmdCamera.name)
if len(cameraAnim) < 1:
return
action_name = action_name or mmdCamera.name
parent_action = bpy.data.actions.new(name=action_name)
distance_action = bpy.data.actions.new(name=action_name + "_dis")
_loc = _rot = lambda i: i
if self.__mirror:
_loc, _rot = _MirrorMapper.get_location, _MirrorMapper.get_rotation3
fcurves = []
for i in range(3):
fcurves.append(parent_action.fcurves.new(data_path="location", index=i)) # x, y, z
for i in range(3):
fcurves.append(parent_action.fcurves.new(data_path="rotation_euler", index=i)) # rx, ry, rz
fcurves.append(parent_action.fcurves.new(data_path="mmd_camera.angle")) # fov
fcurves.append(parent_action.fcurves.new(data_path="mmd_camera.is_perspective")) # persp
fcurves.append(distance_action.fcurves.new(data_path="location", index=1)) # dis
for c in fcurves:
c.keyframe_points.add(len(cameraAnim))
prev_kps, indices = None, (0, 8, 4, 12, 12, 12, 16, 20) # x, z, y, rx, ry, rz, dis, fov
cameraAnim.sort(key=lambda x: x.frame_number)
for k, x, y, z, rx, ry, rz, fov, persp, dis in zip(cameraAnim, *(c.keyframe_points for c in fcurves)):
frame = k.frame_number + self.__frame_margin
x.co, z.co, y.co = ((frame, val * self.__scale) for val in _loc(k.location))
rx.co, rz.co, ry.co = ((frame, val) for val in _rot(k.rotation))
fov.co = (frame, math.radians(k.angle))
dis.co = (frame, k.distance * self.__scale)
persp.co = (frame, k.persp)
persp.interpolation = "CONSTANT"
curr_kps = (x, y, z, rx, ry, rz, dis, fov)
if prev_kps is not None:
interp = k.interp
for idx, prev_kp, kp in zip(indices, prev_kps, curr_kps):
self.__setInterpolation(interp[idx : idx + 4 : 2] + interp[idx + 1 : idx + 4 : 2], prev_kp, kp)
prev_kps = curr_kps
for fcurve in fcurves:
self.__fixFcurveHandles(fcurve)
if fcurve.data_path == "rotation_euler":
self.detectCameraChange(fcurve)
self.__assign_action(mmdCamera, parent_action)
self.__assign_action(cameraObj, distance_action)
@staticmethod
def detectLampChange(fcurve, threshold=0.1):
frames = list(fcurve.keyframe_points)
frameCount = len(frames)
frames.sort(key=lambda x: x.co[0])
for i, f in enumerate(frames):
f.interpolation = "LINEAR"
if i + 1 < frameCount:
n = frames[i + 1]
if n.co[0] - f.co[0] <= 1.0 and abs(f.co[1] - n.co[1]) > threshold:
f.interpolation = "CONSTANT"
def __assignToLamp(self, lampObj, action_name=None):
mmdLampInstance = MMDLamp.convertToMMDLamp(lampObj, self.__scale)
mmdLamp = mmdLampInstance.object()
lampObj = mmdLampInstance.lamp()
lampAnim = self.__vmdFile.lampAnimation
logging.info("(lamp) frames:%5d name: %s", len(lampAnim), mmdLamp.name)
if len(lampAnim) < 1:
return
action_name = action_name or mmdLamp.name
color_action = bpy.data.actions.new(name=action_name + "_color")
location_action = bpy.data.actions.new(name=action_name + "_loc")
_loc = _MirrorMapper.get_location if self.__mirror else lambda i: i
for keyFrame in lampAnim:
frame = keyFrame.frame_number + self.__frame_margin
self.__keyframe_insert(color_action.fcurves, "color", frame, Vector(keyFrame.color))
self.__keyframe_insert(location_action.fcurves, "location", frame, Vector(_loc(keyFrame.direction)).xzy * -1)
for fcurve in location_action.fcurves:
self.detectLampChange(fcurve)
self.__assign_action(lampObj.data, color_action)
self.__assign_action(lampObj, location_action)
def assign(self, obj, action_name=None):
if obj is None:
return
if action_name is None:
action_name = os.path.splitext(os.path.basename(self.__vmdFile.filepath))[0]
if MMDCamera.isMMDCamera(obj):
self.__assignToCamera(obj, action_name + "_camera")
elif MMDLamp.isMMDLamp(obj):
self.__assignToLamp(obj, action_name + "_lamp")
elif getattr(obj.data, "shape_keys", None):
self.__assignToMesh(obj, action_name + "_facial")
elif obj.type == "ARMATURE":
self.__assignToArmature(obj, action_name + "_bone")
elif obj.type == "CAMERA" and self.__convert_mmd_camera:
self.__assignToCamera(obj, action_name + "_camera")
elif obj.type == "LAMP" and self.__convert_mmd_lamp:
self.__assignToLamp(obj, action_name + "_lamp")
elif obj.mmd_type == "ROOT":
self.__assignToRoot(obj, action_name + "_display")
else:
pass
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
from typing import Iterable, Optional
import bpy
from .core.shader import _NodeGroupUtils
from .core.material import FnMaterial
def __switchToCyclesRenderEngine():
if bpy.context.scene.render.engine != "CYCLES":
bpy.context.scene.render.engine = "CYCLES"
def __exposeNodeTreeInput(in_socket, name, default_value, node_input, shader):
_NodeGroupUtils(shader).new_input_socket(name, in_socket, default_value)
def __exposeNodeTreeOutput(out_socket, name, node_output, shader):
_NodeGroupUtils(shader).new_output_socket(name, out_socket)
def __getMaterialOutput(nodes, bl_idname):
o = next((n for n in nodes if n.bl_idname == bl_idname and n.is_active_output), None) or nodes.new(bl_idname)
o.is_active_output = True
return o
def create_MMDAlphaShader():
__switchToCyclesRenderEngine()
if "MMDAlphaShader" in bpy.data.node_groups:
return bpy.data.node_groups["MMDAlphaShader"]
shader = bpy.data.node_groups.new(name="MMDAlphaShader", type="ShaderNodeTree")
node_input = shader.nodes.new("NodeGroupInput")
node_output = shader.nodes.new("NodeGroupOutput")
node_output.location.x += 250
node_input.location.x -= 500
trans = shader.nodes.new("ShaderNodeBsdfTransparent")
trans.location.x -= 250
trans.location.y += 150
mix = shader.nodes.new("ShaderNodeMixShader")
shader.links.new(mix.inputs[1], trans.outputs["BSDF"])
__exposeNodeTreeInput(mix.inputs[2], "Shader", None, node_input, shader)
__exposeNodeTreeInput(mix.inputs["Fac"], "Alpha", 1.0, node_input, shader)
__exposeNodeTreeOutput(mix.outputs["Shader"], "Shader", node_output, shader)
return shader
def create_MMDBasicShader():
__switchToCyclesRenderEngine()
if "MMDBasicShader" in bpy.data.node_groups:
return bpy.data.node_groups["MMDBasicShader"]
shader: bpy.types.ShaderNodeTree = bpy.data.node_groups.new(name="MMDBasicShader", type="ShaderNodeTree")
node_input: bpy.types.NodeGroupInput = shader.nodes.new("NodeGroupInput")
node_output: bpy.types.NodeGroupOutput = shader.nodes.new("NodeGroupOutput")
node_output.location.x += 250
node_input.location.x -= 500
dif: bpy.types.ShaderNodeBsdfDiffuse = shader.nodes.new("ShaderNodeBsdfDiffuse")
dif.location.x -= 250
dif.location.y += 150
glo: bpy.types.ShaderNodeBsdfAnisotropic = shader.nodes.new("ShaderNodeBsdfAnisotropic")
glo.location.x -= 250
glo.location.y -= 150
mix: bpy.types.ShaderNodeMixShader = shader.nodes.new("ShaderNodeMixShader")
shader.links.new(mix.inputs[1], dif.outputs["BSDF"])
shader.links.new(mix.inputs[2], glo.outputs["BSDF"])
__exposeNodeTreeInput(dif.inputs["Color"], "diffuse", [1.0, 1.0, 1.0, 1.0], node_input, shader)
__exposeNodeTreeInput(glo.inputs["Color"], "glossy", [1.0, 1.0, 1.0, 1.0], node_input, shader)
__exposeNodeTreeInput(glo.inputs["Roughness"], "glossy_rough", 0.0, node_input, shader)
__exposeNodeTreeInput(mix.inputs["Fac"], "reflection", 0.02, node_input, shader)
__exposeNodeTreeOutput(mix.outputs["Shader"], "shader", node_output, shader)
return shader
def __enum_linked_nodes(node: bpy.types.Node) -> Iterable[bpy.types.Node]:
yield node
if node.parent:
yield node.parent
for n in set(l.from_node for i in node.inputs for l in i.links):
yield from __enum_linked_nodes(n)
def __cleanNodeTree(material: bpy.types.Material):
nodes = material.node_tree.nodes
node_names = set(n.name for n in nodes)
for o in (n for n in nodes if n.bl_idname in {"ShaderNodeOutput", "ShaderNodeOutputMaterial"}):
if any(i.is_linked for i in o.inputs):
node_names -= set(linked.name for linked in __enum_linked_nodes(o))
for name in node_names:
nodes.remove(nodes[name])
def convertToCyclesShader(obj: bpy.types.Object, use_principled=False, clean_nodes=False, subsurface=0.001):
__switchToCyclesRenderEngine()
convertToBlenderShader(obj, use_principled, clean_nodes, subsurface)
def convertToBlenderShader(obj: bpy.types.Object, use_principled=False, clean_nodes=False, subsurface=0.001):
for i in obj.material_slots:
if not i.material:
continue
if not i.material.use_nodes:
i.material.use_nodes = True
__convertToMMDBasicShader(i.material)
if use_principled:
__convertToPrincipledBsdf(i.material, subsurface)
if clean_nodes:
__cleanNodeTree(i.material)
def convertToMMDShader(obj):
"""BSDF -> MMDShaderDev conversion."""
for i in obj.material_slots:
if not i.material:
continue
if not i.material.use_nodes:
i.material.use_nodes = True
FnMaterial.convert_to_mmd_material(i.material)
def __convertToMMDBasicShader(material: bpy.types.Material):
# TODO: test me
mmd_basic_shader_grp = create_MMDBasicShader()
mmd_alpha_shader_grp = create_MMDAlphaShader()
if not any(filter(lambda x: isinstance(x, bpy.types.ShaderNodeGroup) and x.node_tree.name in {"MMDBasicShader", "MMDAlphaShader"}, material.node_tree.nodes)):
# Add nodes for Cycles Render
shader: bpy.types.ShaderNodeGroup = material.node_tree.nodes.new("ShaderNodeGroup")
shader.node_tree = mmd_basic_shader_grp
shader.inputs[0].default_value[:3] = material.diffuse_color[:3]
shader.inputs[1].default_value[:3] = material.specular_color[:3]
shader.inputs["glossy_rough"].default_value = 1.0 / getattr(material, "specular_hardness", 50)
outplug = shader.outputs[0]
location = shader.location.copy()
location.x -= 1000
alpha_value = 1.0
if len(material.diffuse_color) > 3:
alpha_value = material.diffuse_color[3]
if alpha_value < 1.0:
alpha_shader: bpy.types.ShaderNodeGroup = material.node_tree.nodes.new("ShaderNodeGroup")
alpha_shader.location.x = shader.location.x + 250
alpha_shader.location.y = shader.location.y - 150
alpha_shader.node_tree = mmd_alpha_shader_grp
alpha_shader.inputs[1].default_value = alpha_value
material.node_tree.links.new(alpha_shader.inputs[0], outplug)
outplug = alpha_shader.outputs[0]
material_output: bpy.types.ShaderNodeOutputMaterial = __getMaterialOutput(material.node_tree.nodes, "ShaderNodeOutputMaterial")
material.node_tree.links.new(material_output.inputs["Surface"], outplug)
material_output.location.x = shader.location.x + 500
material_output.location.y = shader.location.y - 150
def __convertToPrincipledBsdf(material: bpy.types.Material, subsurface: float):
node_names = set()
for s in (n for n in material.node_tree.nodes if isinstance(n, bpy.types.ShaderNodeGroup)):
if s.node_tree.name == "MMDBasicShader":
l: bpy.types.NodeLink
for l in s.outputs[0].links:
to_node = l.to_node
# assuming there is no bpy.types.NodeReroute between MMDBasicShader and MMDAlphaShader
if isinstance(to_node, bpy.types.ShaderNodeGroup) and to_node.node_tree.name == "MMDAlphaShader":
__switchToPrincipledBsdf(material.node_tree, s, subsurface, node_alpha=to_node)
node_names.add(to_node.name)
else:
__switchToPrincipledBsdf(material.node_tree, s, subsurface)
node_names.add(s.name)
elif s.node_tree.name == "MMDShaderDev":
__switchToPrincipledBsdf(material.node_tree, s, subsurface)
node_names.add(s.name)
# remove MMD shader nodes
nodes = material.node_tree.nodes
for name in node_names:
nodes.remove(nodes[name])
def __switchToPrincipledBsdf(node_tree: bpy.types.NodeTree, node_basic: bpy.types.ShaderNodeGroup, subsurface: float, node_alpha: Optional[bpy.types.ShaderNodeGroup] = None):
shader: bpy.types.ShaderNodeBsdfPrincipled = node_tree.nodes.new("ShaderNodeBsdfPrincipled")
shader.parent = node_basic.parent
shader.location.x = node_basic.location.x
shader.location.y = node_basic.location.y
alpha_socket_name = "Alpha"
if node_basic.node_tree.name == "MMDShaderDev":
node_alpha, alpha_socket_name = node_basic, "Base Alpha"
if "Base Tex" in node_basic.inputs and node_basic.inputs["Base Tex"].is_linked:
node_tree.links.new(node_basic.inputs["Base Tex"].links[0].from_socket, shader.inputs["Base Color"])
elif "Diffuse Color" in node_basic.inputs:
shader.inputs["Base Color"].default_value[:3] = node_basic.inputs["Diffuse Color"].default_value[:3]
elif "diffuse" in node_basic.inputs:
shader.inputs["Base Color"].default_value[:3] = node_basic.inputs["diffuse"].default_value[:3]
if node_basic.inputs["diffuse"].is_linked:
node_tree.links.new(node_basic.inputs["diffuse"].links[0].from_socket, shader.inputs["Base Color"])
shader.inputs["IOR"].default_value = 1.0
shader.inputs["Subsurface Weight"].default_value = subsurface
output_links = node_basic.outputs[0].links
if node_alpha:
output_links = node_alpha.outputs[0].links
shader.parent = node_alpha.parent or shader.parent
shader.location.x = node_alpha.location.x
if alpha_socket_name in node_alpha.inputs:
if "Alpha" in shader.inputs:
shader.inputs["Alpha"].default_value = node_alpha.inputs[alpha_socket_name].default_value
if node_alpha.inputs[alpha_socket_name].is_linked:
node_tree.links.new(node_alpha.inputs[alpha_socket_name].links[0].from_socket, shader.inputs["Alpha"])
else:
shader.inputs["Transmission"].default_value = 1 - node_alpha.inputs[alpha_socket_name].default_value
if node_alpha.inputs[alpha_socket_name].is_linked:
node_invert = node_tree.nodes.new("ShaderNodeMath")
node_invert.parent = shader.parent
node_invert.location.x = node_alpha.location.x - 250
node_invert.location.y = node_alpha.location.y - 300
node_invert.operation = "SUBTRACT"
node_invert.use_clamp = True
node_invert.inputs[0].default_value = 1
node_tree.links.new(node_alpha.inputs[alpha_socket_name].links[0].from_socket, node_invert.inputs[1])
node_tree.links.new(node_invert.outputs[0], shader.inputs["Transmission"])
for l in output_links:
node_tree.links.new(shader.outputs[0], l.to_socket)
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
+406
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import bpy
from bpy.props import BoolProperty, StringProperty
from bpy.types import Operator
from .. import cycles_converter
from ..core.exceptions import MaterialNotFoundError
from ..core.material import FnMaterial
from ..core.shader import _NodeGroupUtils
class ConvertMaterialsForCycles(Operator):
bl_idname = "mmd_tools.convert_materials_for_cycles"
bl_label = "Convert Materials For Cycles"
bl_description = "Convert materials of selected objects for Cycles."
bl_options = {"REGISTER", "UNDO"}
use_principled: bpy.props.BoolProperty(
name="Convert to Principled BSDF",
description="Convert MMD shader nodes to Principled BSDF as well if enabled",
default=False,
options={"SKIP_SAVE"},
)
clean_nodes: bpy.props.BoolProperty(
name="Clean Nodes",
description="Remove redundant nodes as well if enabled. Disable it to keep node data.",
default=False,
options={"SKIP_SAVE"},
)
@classmethod
def poll(cls, context):
return next((x for x in context.selected_objects if x.type == "MESH"), None)
def draw(self, context):
layout = self.layout
layout.prop(self, "use_principled")
layout.prop(self, "clean_nodes")
def execute(self, context):
try:
context.scene.render.engine = "CYCLES"
except:
self.report({"ERROR"}, " * Failed to change to Cycles render engine.")
return {"CANCELLED"}
for obj in (x for x in context.selected_objects if x.type == "MESH"):
cycles_converter.convertToCyclesShader(obj, use_principled=self.use_principled, clean_nodes=self.clean_nodes)
return {"FINISHED"}
class ConvertMaterials(Operator):
bl_idname = "mmd_tools.convert_materials"
bl_label = "Convert Materials"
bl_description = "Convert materials of selected objects."
bl_options = {"REGISTER", "UNDO"}
use_principled: bpy.props.BoolProperty(
name="Convert to Principled BSDF",
description="Convert MMD shader nodes to Principled BSDF as well if enabled",
default=True,
options={"SKIP_SAVE"},
)
clean_nodes: bpy.props.BoolProperty(
name="Clean Nodes",
description="Remove redundant nodes as well if enabled. Disable it to keep node data.",
default=True,
options={"SKIP_SAVE"},
)
subsurface: bpy.props.FloatProperty(
name="Subsurface",
default=0.001,
soft_min=0.000,
soft_max=1.000,
precision=3,
options={"SKIP_SAVE"},
)
@classmethod
def poll(cls, context):
return next((x for x in context.selected_objects if x.type == "MESH"), None)
def execute(self, context):
for obj in context.selected_objects:
if obj.type != "MESH":
continue
cycles_converter.convertToBlenderShader(obj, use_principled=self.use_principled, clean_nodes=self.clean_nodes, subsurface=self.subsurface)
return {"FINISHED"}
class ConvertBSDFMaterials(Operator):
bl_idname = 'mmd_tools.convert_bsdf_materials'
bl_label = 'Convert Blender Materials'
bl_description = 'Convert materials of selected objects.'
bl_options = {'REGISTER', 'UNDO'}
@classmethod
def poll(cls, context):
return next((x for x in context.selected_objects if x.type == 'MESH'), None)
def execute(self, context):
for obj in context.selected_objects:
if obj.type != 'MESH':
continue
cycles_converter.convertToMMDShader(obj)
return {'FINISHED'}
class _OpenTextureBase:
"""Create a texture for mmd model material."""
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
filepath: StringProperty(
name="File Path",
description="Filepath used for importing the file",
maxlen=1024,
subtype="FILE_PATH",
)
use_filter_image: BoolProperty(
default=True,
options={"HIDDEN"},
)
def invoke(self, context, event):
context.window_manager.fileselect_add(self)
return {"RUNNING_MODAL"}
class OpenTexture(Operator, _OpenTextureBase):
bl_idname = "mmd_tools.material_open_texture"
bl_label = "Open Texture"
bl_description = "Create main texture of active material"
def execute(self, context):
mat = context.active_object.active_material
fnMat = FnMaterial(mat)
fnMat.create_texture(self.filepath)
return {"FINISHED"}
class RemoveTexture(Operator):
"""Create a texture for mmd model material."""
bl_idname = "mmd_tools.material_remove_texture"
bl_label = "Remove Texture"
bl_description = "Remove main texture of active material"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
mat = context.active_object.active_material
fnMat = FnMaterial(mat)
fnMat.remove_texture()
return {"FINISHED"}
class OpenSphereTextureSlot(Operator, _OpenTextureBase):
"""Create a texture for mmd model material."""
bl_idname = "mmd_tools.material_open_sphere_texture"
bl_label = "Open Sphere Texture"
bl_description = "Create sphere texture of active material"
def execute(self, context):
mat = context.active_object.active_material
fnMat = FnMaterial(mat)
fnMat.create_sphere_texture(self.filepath, context.active_object)
return {"FINISHED"}
class RemoveSphereTexture(Operator):
"""Create a texture for mmd model material."""
bl_idname = "mmd_tools.material_remove_sphere_texture"
bl_label = "Remove Sphere Texture"
bl_description = "Remove sphere texture of active material"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
mat = context.active_object.active_material
fnMat = FnMaterial(mat)
fnMat.remove_sphere_texture()
return {"FINISHED"}
class MoveMaterialUp(Operator):
bl_idname = "mmd_tools.move_material_up"
bl_label = "Move Material Up"
bl_description = "Moves selected material one slot up"
bl_options = {"REGISTER", "UNDO"}
@classmethod
def poll(cls, context):
obj = context.active_object
valid_mesh = obj and obj.type == "MESH" and obj.mmd_type == "NONE"
return valid_mesh and obj.active_material_index > 0
def execute(self, context):
obj = context.active_object
current_idx = obj.active_material_index
prev_index = current_idx - 1
try:
FnMaterial.swap_materials(obj, current_idx, prev_index, reverse=True, swap_slots=True)
except MaterialNotFoundError:
self.report({"ERROR"}, "Materials not found")
return {"CANCELLED"}
obj.active_material_index = prev_index
return {"FINISHED"}
class MoveMaterialDown(Operator):
bl_idname = "mmd_tools.move_material_down"
bl_label = "Move Material Down"
bl_description = "Moves the selected material one slot down"
bl_options = {"REGISTER", "UNDO"}
@classmethod
def poll(cls, context):
obj = context.active_object
valid_mesh = obj and obj.type == "MESH" and obj.mmd_type == "NONE"
return valid_mesh and obj.active_material_index < len(obj.material_slots) - 1
def execute(self, context):
obj = context.active_object
current_idx = obj.active_material_index
next_index = current_idx + 1
try:
FnMaterial.swap_materials(obj, current_idx, next_index, reverse=True, swap_slots=True)
except MaterialNotFoundError:
self.report({"ERROR"}, "Materials not found")
return {"CANCELLED"}
obj.active_material_index = next_index
return {"FINISHED"}
class EdgePreviewSetup(Operator):
bl_idname = "mmd_tools.edge_preview_setup"
bl_label = "Edge Preview Setup"
bl_description = 'Preview toon edge settings of active model using "Solidify" modifier'
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
action: bpy.props.EnumProperty(
name="Action",
description="Select action",
items=[
("CREATE", "Create", "Create toon edge", 0),
("CLEAN", "Clean", "Clear toon edge", 1),
],
default="CREATE",
)
def execute(self, context):
from ..core.model import FnModel
root = FnModel.find_root_object(context.active_object)
if root is None:
self.report({"ERROR"}, "Select a MMD model")
return {"CANCELLED"}
if self.action == "CLEAN":
for obj in FnModel.iterate_mesh_objects(root):
self.__clean_toon_edge(obj)
else:
from ..bpyutils import Props
scale = 0.2 * getattr(root, Props.empty_display_size)
counts = sum(self.__create_toon_edge(obj, scale) for obj in FnModel.iterate_mesh_objects(root))
self.report({"INFO"}, "Created %d toon edge(s)" % counts)
return {"FINISHED"}
def __clean_toon_edge(self, obj):
if "mmd_edge_preview" in obj.modifiers:
obj.modifiers.remove(obj.modifiers["mmd_edge_preview"])
if "mmd_edge_preview" in obj.vertex_groups:
obj.vertex_groups.remove(obj.vertex_groups["mmd_edge_preview"])
FnMaterial.clean_materials(obj, can_remove=lambda m: m and m.name.startswith("mmd_edge."))
def __create_toon_edge(self, obj, scale=1.0):
self.__clean_toon_edge(obj)
materials = obj.data.materials
material_offset = len(materials)
for m in tuple(materials):
if m and m.mmd_material.enabled_toon_edge:
mat_edge = self.__get_edge_material("mmd_edge." + m.name, m.mmd_material.edge_color, materials)
materials.append(mat_edge)
elif material_offset > 1:
mat_edge = self.__get_edge_material("mmd_edge.disabled", (0, 0, 0, 0), materials)
materials.append(mat_edge)
if len(materials) > material_offset:
mod = obj.modifiers.get("mmd_edge_preview", None)
if mod is None:
mod = obj.modifiers.new("mmd_edge_preview", "SOLIDIFY")
mod.material_offset = material_offset
mod.thickness_vertex_group = 1e-3 # avoid overlapped faces
mod.use_flip_normals = True
mod.use_rim = False
mod.offset = 1
self.__create_edge_preview_group(obj)
mod.thickness = scale
mod.vertex_group = "mmd_edge_preview"
return len(materials) - material_offset
def __create_edge_preview_group(self, obj):
vertices, materials = obj.data.vertices, obj.data.materials
weight_map = {i: m.mmd_material.edge_weight for i, m in enumerate(materials) if m}
scale_map = {}
vg_scale_index = obj.vertex_groups.find("mmd_edge_scale")
if vg_scale_index >= 0:
scale_map = {v.index: g.weight for v in vertices for g in v.groups if g.group == vg_scale_index}
vg_edge_preview = obj.vertex_groups.new(name="mmd_edge_preview")
for i, mi in {v: f.material_index for f in reversed(obj.data.polygons) for v in f.vertices}.items():
weight = scale_map.get(i, 1.0) * weight_map.get(mi, 1.0) * 0.02
vg_edge_preview.add(index=[i], weight=weight, type="REPLACE")
def __get_edge_material(self, mat_name, edge_color, materials):
if mat_name in materials:
return materials[mat_name]
mat = bpy.data.materials.get(mat_name, None)
if mat is None:
mat = bpy.data.materials.new(mat_name)
mmd_mat = mat.mmd_material
# note: edge affects ground shadow
mmd_mat.is_double_sided = mmd_mat.enabled_drop_shadow = False
mmd_mat.enabled_self_shadow_map = mmd_mat.enabled_self_shadow = False
# mmd_mat.enabled_self_shadow_map = True # for blender 2.78+ BI viewport only
mmd_mat.diffuse_color = mmd_mat.specular_color = (0, 0, 0)
mmd_mat.ambient_color = edge_color[:3]
mmd_mat.alpha = edge_color[3]
mmd_mat.edge_color = edge_color
self.__make_shader(mat)
return mat
def __make_shader(self, m):
m.use_nodes = True
nodes, links = m.node_tree.nodes, m.node_tree.links
node_shader = nodes.get("mmd_edge_preview", None)
if node_shader is None or not any(s.is_linked for s in node_shader.outputs):
XPOS, YPOS = 210, 110
nodes.clear()
node_shader = nodes.new("ShaderNodeGroup")
node_shader.name = "mmd_edge_preview"
node_shader.location = (0, 0)
node_shader.width = 200
node_shader.node_tree = self.__get_edge_preview_shader()
node_out = nodes.new("ShaderNodeOutputMaterial")
node_out.location = (XPOS * 2, YPOS * 0)
links.new(node_shader.outputs["Shader"], node_out.inputs["Surface"])
node_shader.inputs["Color"].default_value = m.mmd_material.edge_color
node_shader.inputs["Alpha"].default_value = m.mmd_material.edge_color[3]
def __get_edge_preview_shader(self):
group_name = "MMDEdgePreview"
shader = bpy.data.node_groups.get(group_name, None) or bpy.data.node_groups.new(name=group_name, type="ShaderNodeTree")
if len(shader.nodes):
return shader
ng = _NodeGroupUtils(shader)
node_input = ng.new_node("NodeGroupInput", (-5, 0))
node_output = ng.new_node("NodeGroupOutput", (3, 0))
############################################################################
node_color = ng.new_node("ShaderNodeMixRGB", (-1, -1.5))
node_color.mute = True
ng.new_input_socket("Color", node_color.inputs["Color1"])
############################################################################
node_ray = ng.new_node("ShaderNodeLightPath", (-3, 1.5))
node_geo = ng.new_node("ShaderNodeNewGeometry", (-3, 0))
node_max = ng.new_math_node("MAXIMUM", (-2, 1.5))
node_max.mute = True
node_gt = ng.new_math_node("GREATER_THAN", (-1, 1))
node_alpha = ng.new_math_node("MULTIPLY", (0, 1))
node_trans = ng.new_node("ShaderNodeBsdfTransparent", (0, 0))
node_rgb = ng.new_node("ShaderNodeBackground", (0, -0.5))
node_mix = ng.new_node("ShaderNodeMixShader", (1, 0.5))
links = ng.links
links.new(node_ray.outputs["Is Camera Ray"], node_max.inputs[0])
links.new(node_ray.outputs["Is Glossy Ray"], node_max.inputs[1])
links.new(node_max.outputs["Value"], node_gt.inputs[0])
links.new(node_geo.outputs["Backfacing"], node_gt.inputs[1])
links.new(node_gt.outputs["Value"], node_alpha.inputs[0])
links.new(node_alpha.outputs["Value"], node_mix.inputs["Fac"])
links.new(node_trans.outputs["BSDF"], node_mix.inputs[1])
links.new(node_rgb.outputs[0], node_mix.inputs[2])
links.new(node_color.outputs["Color"], node_rgb.inputs["Color"])
ng.new_input_socket("Alpha", node_alpha.inputs[1])
ng.new_output_socket("Shader", node_mix.outputs["Shader"])
return shader
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import re
import bpy
from .. import utils
from ..bpyutils import FnContext, FnObject
from ..core.bone import FnBone
from ..core.model import FnModel, Model
from ..core.morph import FnMorph
class SelectObject(bpy.types.Operator):
bl_idname = "mmd_tools.object_select"
bl_label = "Select Object"
bl_description = "Select the object"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
name: bpy.props.StringProperty(
name="Name",
description="The object name",
default="",
options={"HIDDEN", "SKIP_SAVE"},
)
def execute(self, context):
utils.selectAObject(context.scene.objects[self.name])
return {"FINISHED"}
class MoveObject(bpy.types.Operator, utils.ItemMoveOp):
bl_idname = "mmd_tools.object_move"
bl_label = "Move Object"
bl_description = "Move active object up/down in the list"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
__PREFIX_REGEXP = re.compile(r"(?P<prefix>[0-9A-Z]{3}_)(?P<name>.*)")
@classmethod
def set_index(cls, obj, index):
m = cls.__PREFIX_REGEXP.match(obj.name)
name = m.group("name") if m else obj.name
obj.name = "%s_%s" % (utils.int2base(index, 36, 3), name)
@classmethod
def get_name(cls, obj, prefix=None):
m = cls.__PREFIX_REGEXP.match(obj.name)
name = m.group("name") if m else obj.name
return name[len(prefix) :] if prefix and name.startswith(prefix) else name
@classmethod
def normalize_indices(cls, objects):
for i, x in enumerate(objects):
cls.set_index(x, i)
@classmethod
def poll(cls, context):
return context.active_object
def execute(self, context):
obj = context.active_object
objects = self.__get_objects(obj)
if obj not in objects:
self.report({"ERROR"}, 'Can not move object "%s"' % obj.name)
return {"CANCELLED"}
objects.sort(key=lambda x: x.name)
self.move(objects, objects.index(obj), self.type)
self.normalize_indices(objects)
return {"FINISHED"}
def __get_objects(self, obj):
class __MovableList(list):
def move(self, index_old, index_new):
item = self[index_old]
self.remove(item)
self.insert(index_new, item)
objects = []
root = FnModel.find_root_object(obj)
if root:
rig = Model(root)
if obj.mmd_type == "NONE" and obj.type == "MESH":
objects = rig.meshes()
elif obj.mmd_type == "RIGID_BODY":
objects = rig.rigidBodies()
elif obj.mmd_type == "JOINT":
objects = rig.joints()
return __MovableList(objects)
class CleanShapeKeys(bpy.types.Operator):
bl_idname = "mmd_tools.clean_shape_keys"
bl_label = "Clean Shape Keys"
bl_description = "Remove unused shape keys of selected mesh objects"
bl_options = {"REGISTER", "UNDO"}
@classmethod
def poll(cls, context):
return any(o.type == "MESH" for o in context.selected_objects)
@staticmethod
def __can_remove(key_block):
if key_block.relative_key == key_block:
return False # Basis
for v0, v1 in zip(key_block.relative_key.data, key_block.data):
if v0.co != v1.co:
return False
return True
def __shape_key_clean(self, obj, key_blocks):
for kb in key_blocks:
if self.__can_remove(kb):
FnObject.mesh_remove_shape_key(obj, kb)
if len(key_blocks) == 1:
FnObject.mesh_remove_shape_key(obj, key_blocks[0])
def execute(self, context):
obj: bpy.types.Object
for obj in context.selected_objects:
if obj.type != "MESH" or obj.data.shape_keys is None:
continue
if not obj.data.shape_keys.use_relative:
continue # not be considered yet
self.__shape_key_clean(obj, obj.data.shape_keys.key_blocks)
return {"FINISHED"}
class SeparateByMaterials(bpy.types.Operator):
bl_idname = "mmd_tools.separate_by_materials"
bl_label = "Separate By Materials"
bl_options = {"REGISTER", "UNDO"}
clean_shape_keys: bpy.props.BoolProperty(
name="Clean Shape Keys",
description="Remove unused shape keys of separated objects",
default=True,
)
@classmethod
def poll(cls, context):
obj = context.active_object
return obj and obj.type == "MESH"
def __separate_by_materials(self, obj):
utils.separateByMaterials(obj)
if self.clean_shape_keys:
bpy.ops.mmd_tools.clean_shape_keys()
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
if root is None:
self.__separate_by_materials(obj)
else:
bpy.ops.mmd_tools.clear_temp_materials()
bpy.ops.mmd_tools.clear_uv_morph_view()
# Store the current material names
rig = Model(root)
mat_names = [getattr(mat, "name", None) for mat in rig.materials()]
self.__separate_by_materials(obj)
for mesh in rig.meshes():
FnMorph.clean_uv_morph_vertex_groups(mesh)
if len(mesh.data.materials) > 0:
mat = mesh.data.materials[0]
idx = mat_names.index(getattr(mat, "name", None))
MoveObject.set_index(mesh, idx)
for morph in root.mmd_root.material_morphs:
FnMorph(morph, rig).update_mat_related_mesh()
utils.clearUnusedMeshes()
return {"FINISHED"}
class JoinMeshes(bpy.types.Operator):
bl_idname = "mmd_tools.join_meshes"
bl_label = "Join Meshes"
bl_description = "Join the Model meshes into a single one"
bl_options = {"REGISTER", "UNDO"}
sort_shape_keys: bpy.props.BoolProperty(
name="Sort Shape Keys",
description="Sort shape keys in the order of vertex morph",
default=True,
)
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
if root is None:
self.report({"ERROR"}, "Select a MMD model")
return {"CANCELLED"}
bpy.ops.mmd_tools.clear_temp_materials()
bpy.ops.mmd_tools.clear_uv_morph_view()
# Find all the meshes in mmd_root
rig = Model(root)
meshes_list = sorted(rig.meshes(), key=lambda x: x.name)
if not meshes_list:
self.report({"ERROR"}, "The model does not have any meshes")
return {"CANCELLED"}
active_mesh = meshes_list[0]
FnContext.select_objects(context, *meshes_list)
FnContext.set_active_object(context, active_mesh)
# Store the current order of the materials
for m in meshes_list[1:]:
for mat in m.data.materials:
if mat not in active_mesh.data.materials[:]:
active_mesh.data.materials.append(mat)
# Join selected meshes
bpy.ops.object.join()
if self.sort_shape_keys:
FnMorph.fixShapeKeyOrder(active_mesh, root.mmd_root.vertex_morphs.keys())
active_mesh.active_shape_key_index = 0
for morph in root.mmd_root.material_morphs:
FnMorph(morph, rig).update_mat_related_mesh(active_mesh)
utils.clearUnusedMeshes()
return {"FINISHED"}
class AttachMeshesToMMD(bpy.types.Operator):
bl_idname = "mmd_tools.attach_meshes"
bl_label = "Attach Meshes to Model"
bl_description = "Finds existing meshes and attaches them to the selected MMD model"
bl_options = {"REGISTER", "UNDO"}
add_armature_modifier: bpy.props.BoolProperty(default=True)
def execute(self, context: bpy.types.Context):
root = FnModel.find_root_object(context.active_object)
if root is None:
self.report({"ERROR"}, "Select a MMD model")
return {"CANCELLED"}
armObj = FnModel.find_armature_object(root)
if armObj is None:
self.report({"ERROR"}, "Model Armature not found")
return {"CANCELLED"}
FnModel.attach_mesh_objects(root, context.visible_objects, self.add_armature_modifier)
return {"FINISHED"}
class ChangeMMDIKLoopFactor(bpy.types.Operator):
bl_idname = "mmd_tools.change_mmd_ik_loop_factor"
bl_label = "Change MMD IK Loop Factor"
bl_description = "Multiplier for all bones' IK iterations in Blender"
bl_options = {"REGISTER", "UNDO"}
mmd_ik_loop_factor: bpy.props.IntProperty(
name="MMD IK Loop Factor",
description="Scaling factor of MMD IK loop",
min=1,
soft_max=10,
max=100,
)
@classmethod
def poll(cls, context):
return FnModel.find_root_object(context.active_object) is not None
def invoke(self, context, event):
root_object = FnModel.find_root_object(context.active_object)
self.mmd_ik_loop_factor = root_object.mmd_root.ik_loop_factor
vm = context.window_manager
return vm.invoke_props_dialog(self)
def execute(self, context):
root_object = FnModel.find_root_object(context.active_object)
FnModel.change_mmd_ik_loop_factor(root_object, self.mmd_ik_loop_factor)
return {"FINISHED"}
class RecalculateBoneRoll(bpy.types.Operator):
bl_idname = "mmd_tools.recalculate_bone_roll"
bl_label = "Recalculate bone roll"
bl_description = "Recalculate bone roll for arm related bones"
bl_options = {"REGISTER", "UNDO"}
@classmethod
def poll(cls, context):
obj = context.active_object
return obj and obj.type == "ARMATURE"
def invoke(self, context, event):
vm = context.window_manager
return vm.invoke_props_dialog(self)
def draw(self, context):
layout = self.layout
c = layout.column()
c.label(text="This operation will break existing f-curve/action.", icon="QUESTION")
c.label(text="Click [OK] to run the operation.")
def execute(self, context):
arm = context.active_object
FnBone.apply_auto_bone_roll(arm)
return {"FINISHED"}
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import bpy
from ..bpyutils import FnContext
from ..core.bone import FnBone, MigrationFnBone
from ..core.model import FnModel, Model
class MorphSliderSetup(bpy.types.Operator):
bl_idname = "mmd_tools.morph_slider_setup"
bl_label = "Morph Slider Setup"
bl_description = "Translate MMD morphs of selected object into format usable by Blender"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
type: bpy.props.EnumProperty(
name="Type",
description="Select type",
items=[
("CREATE", "Create", "Create placeholder object for morph sliders", "SHAPEKEY_DATA", 0),
("BIND", "Bind", "Bind morph sliders", "DRIVER", 1),
("UNBIND", "Unbind", "Unbind morph sliders", "X", 2),
],
default="CREATE",
)
def execute(self, context: bpy.types.Context):
active_object = context.active_object
root_object = FnModel.find_root_object(active_object)
assert root_object is not None
with FnContext.temp_override_active_layer_collection(context, root_object):
rig = Model(root_object)
if self.type == "BIND":
rig.morph_slider.bind()
elif self.type == "UNBIND":
rig.morph_slider.unbind()
else:
rig.morph_slider.create()
FnContext.set_active_object(context, active_object)
return {"FINISHED"}
class CleanRiggingObjects(bpy.types.Operator):
bl_idname = "mmd_tools.clean_rig"
bl_label = "Clean Rig"
bl_description = "Delete temporary physics objects of selected object and revert physics to default MMD state"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
root_object = FnModel.find_root_object(context.active_object)
assert root_object is not None
rig = Model(root_object)
rig.clean()
FnContext.set_active_object(context, root_object)
return {"FINISHED"}
class BuildRig(bpy.types.Operator):
bl_idname = "mmd_tools.build_rig"
bl_label = "Build Rig"
bl_description = "Translate physics of selected object into format usable by Blender"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
non_collision_distance_scale: bpy.props.FloatProperty(
name="Non-Collision Distance Scale",
description="The distance scale for creating extra non-collision constraints while building physics",
min=0,
soft_max=10,
default=1.5,
)
collision_margin: bpy.props.FloatProperty(
name="Collision Margin",
description="The collision margin between rigid bodies. If 0, the default value for each shape is adopted.",
unit="LENGTH",
min=0,
soft_max=10,
default=1e-06,
)
def execute(self, context):
root_object = FnModel.find_root_object(context.active_object)
with FnContext.temp_override_active_layer_collection(context, root_object):
rig = Model(root_object)
rig.build(self.non_collision_distance_scale, self.collision_margin)
FnContext.set_active_object(context, root_object)
return {"FINISHED"}
class CleanAdditionalTransformConstraints(bpy.types.Operator):
bl_idname = "mmd_tools.clean_additional_transform"
bl_label = "Clean Additional Transform"
bl_description = "Delete shadow bones of selected object and revert bones to default MMD state"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
active_object = context.active_object
root_object = FnModel.find_root_object(active_object)
assert root_object is not None
FnBone.clean_additional_transformation(FnModel.find_armature_object(root_object))
FnContext.set_active_object(context, active_object)
return {"FINISHED"}
class ApplyAdditionalTransformConstraints(bpy.types.Operator):
bl_idname = "mmd_tools.apply_additional_transform"
bl_label = "Apply Additional Transform"
bl_description = "Translate appended bones of selected object for Blender"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
active_object = context.active_object
root_object = FnModel.find_root_object(active_object)
assert root_object is not None
armature_object = FnModel.find_armature_object(root_object)
assert armature_object is not None
MigrationFnBone.fix_mmd_ik_limit_override(armature_object)
FnBone.apply_additional_transformation(armature_object)
FnContext.set_active_object(context, active_object)
return {"FINISHED"}
class SetupBoneFixedAxes(bpy.types.Operator):
bl_idname = "mmd_tools.bone_fixed_axis_setup"
bl_label = "Setup Bone Fixed Axis"
bl_description = "Setup fixed axis of selected bones"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
type: bpy.props.EnumProperty(
name="Type",
description="Select type",
items=[
("DISABLE", "Disable", "Disable MMD fixed axis of selected bones", 0),
("LOAD", "Load", "Load/Enable MMD fixed axis of selected bones from their Y-axis or the only rotatable axis", 1),
("APPLY", "Apply", "Align bone axes to MMD fixed axis of each bone", 2),
],
default="LOAD",
)
def execute(self, context):
armature_object = context.active_object
if not armature_object or armature_object.type != "ARMATURE":
self.report({"ERROR"}, "Active object is not an armature object")
return {"CANCELLED"}
if self.type == "APPLY":
FnBone.apply_bone_fixed_axis(armature_object)
FnBone.apply_additional_transformation(armature_object)
else:
FnBone.load_bone_fixed_axis(armature_object, enable=(self.type == "LOAD"))
return {"FINISHED"}
class SetupBoneLocalAxes(bpy.types.Operator):
bl_idname = "mmd_tools.bone_local_axes_setup"
bl_label = "Setup Bone Local Axes"
bl_description = "Setup local axes of each bone"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
type: bpy.props.EnumProperty(
name="Type",
description="Select type",
items=[
("DISABLE", "Disable", "Disable MMD local axes of selected bones", 0),
("LOAD", "Load", "Load/Enable MMD local axes of selected bones from their bone axes", 1),
("APPLY", "Apply", "Align bone axes to MMD local axes of each bone", 2),
],
default="LOAD",
)
def execute(self, context):
armature_object = context.active_object
if not armature_object or armature_object.type != "ARMATURE":
self.report({"ERROR"}, "Active object is not an armature object")
return {"CANCELLED"}
if self.type == "APPLY":
FnBone.apply_bone_local_axes(armature_object)
FnBone.apply_additional_transformation(armature_object)
else:
FnBone.load_bone_local_axes(armature_object, enable=(self.type == "LOAD"))
return {"FINISHED"}
class AddMissingVertexGroupsFromBones(bpy.types.Operator):
bl_idname = "mmd_tools.add_missing_vertex_groups_from_bones"
bl_label = "Add Missing Vertex Groups from Bones"
bl_description = "Add the missing vertex groups to the selected mesh"
bl_options = {"REGISTER", "UNDO"}
search_in_all_meshes: bpy.props.BoolProperty(
name="Search in all meshes",
description="Search for vertex groups in all meshes",
default=False,
)
@classmethod
def poll(cls, context: bpy.types.Context):
return FnModel.find_root_object(context.active_object) is not None
def execute(self, context: bpy.types.Context):
active_object: bpy.types.Object = context.active_object
root_object = FnModel.find_root_object(active_object)
assert root_object is not None
bone_order_mesh_object = FnModel.find_bone_order_mesh_object(root_object)
if bone_order_mesh_object is None:
return {"CANCELLED"}
FnModel.add_missing_vertex_groups_from_bones(root_object, bone_order_mesh_object, self.search_in_all_meshes)
return {"FINISHED"}
class CreateMMDModelRoot(bpy.types.Operator):
bl_idname = "mmd_tools.create_mmd_model_root_object"
bl_label = "Create a MMD Model Root Object"
bl_description = "Create a MMD model root object with a basic armature"
bl_options = {"REGISTER", "UNDO"}
name_j: bpy.props.StringProperty(
name="Name",
description="The name of the MMD model",
default="New MMD Model",
)
name_e: bpy.props.StringProperty(
name="Name(Eng)",
description="The english name of the MMD model",
default="New MMD Model",
)
scale: bpy.props.FloatProperty(
name="Scale",
description="Scale",
default=0.08,
)
def execute(self, context):
rig = Model.create(self.name_j, self.name_e, self.scale, add_root_bone=True)
rig.initialDisplayFrames()
return {"FINISHED"}
def invoke(self, context, event):
vm = context.window_manager
return vm.invoke_props_dialog(self)
class ConvertToMMDModel(bpy.types.Operator):
bl_idname = "mmd_tools.convert_to_mmd_model"
bl_label = "Convert to a MMD Model"
bl_description = "Convert active armature with its meshes to a MMD model (experimental)"
bl_options = {"REGISTER", "UNDO"}
ambient_color_source: bpy.props.EnumProperty(
name="Ambient Color Source",
description="Select ambient color source",
items=[
("DIFFUSE", "Diffuse", "Diffuse color", 0),
("MIRROR", "Mirror", 'Mirror color (if property "mirror_color" is available)', 1),
],
default="DIFFUSE",
)
edge_threshold: bpy.props.FloatProperty(
name="Edge Threshold",
description="MMD toon edge will not be enabled if freestyle line color alpha less than this value",
min=0,
max=1.001,
precision=3,
step=0.1,
default=0.1,
)
edge_alpha_min: bpy.props.FloatProperty(
name="Minimum Edge Alpha",
description="Minimum alpha of MMD toon edge color",
min=0,
max=1,
precision=3,
step=0.1,
default=0.5,
)
scale: bpy.props.FloatProperty(
name="Scale",
description="Scaling factor for converting the model",
default=0.08,
)
convert_material_nodes: bpy.props.BoolProperty(
name="Convert Material Nodes",
default=True,
)
middle_joint_bones_lock: bpy.props.BoolProperty(
name="Middle Joint Bones Lock",
description="Lock specific bones for backward compatibility.",
default=False,
)
@classmethod
def poll(cls, context):
obj = context.active_object
return obj and obj.type == "ARMATURE" and obj.mode != "EDIT"
def invoke(self, context, event):
vm = context.window_manager
return vm.invoke_props_dialog(self)
def execute(self, context):
# TODO convert some basic MMD properties
armature_object = context.active_object
scale = self.scale
model_name = "New MMD Model"
root_object = FnModel.find_root_object(armature_object)
if root_object is None or root_object != armature_object.parent:
Model.create(model_name, model_name, scale, armature_object=armature_object)
self.__attach_meshes_to(armature_object, FnContext.get_scene_objects(context))
self.__configure_rig(context, Model(armature_object.parent))
return {"FINISHED"}
def __attach_meshes_to(self, armature_object: bpy.types.Object, objects: bpy.types.SceneObjects):
def __is_child_of_armature(mesh):
if mesh.parent is None:
return False
return mesh.parent == armature_object or __is_child_of_armature(mesh.parent)
def __is_using_armature(mesh):
for m in mesh.modifiers:
if m.type == "ARMATURE" and m.object == armature_object:
return True
return False
def __get_root(mesh):
if mesh.parent is None:
return mesh
return __get_root(mesh.parent)
for x in objects:
if __is_using_armature(x) and not __is_child_of_armature(x):
x_root = __get_root(x)
m = x_root.matrix_world
x_root.parent_type = "OBJECT"
x_root.parent = armature_object
x_root.matrix_world = m
def __configure_rig(self, context: bpy.types.Context, mmd_model: Model):
root_object = mmd_model.rootObject()
armature_object = mmd_model.armature()
mesh_objects = tuple(mmd_model.meshes())
mmd_model.loadMorphs()
if self.middle_joint_bones_lock:
vertex_groups = {g.name for mesh in mesh_objects for g in mesh.vertex_groups}
for pose_bone in armature_object.pose.bones:
if not pose_bone.parent:
continue
if not pose_bone.bone.use_connect and pose_bone.name not in vertex_groups:
continue
pose_bone.lock_location = (True, True, True)
from ..core.material import FnMaterial
FnMaterial.set_nodes_are_readonly(not self.convert_material_nodes)
try:
for m in (x for mesh in mesh_objects for x in mesh.data.materials if x):
FnMaterial.convert_to_mmd_material(m, context)
mmd_material = m.mmd_material
if self.ambient_color_source == "MIRROR" and hasattr(m, "mirror_color"):
mmd_material.ambient_color = m.mirror_color
else:
mmd_material.ambient_color = [0.5 * c for c in mmd_material.diffuse_color]
if hasattr(m, "line_color"): # freestyle line color
line_color = list(m.line_color)
mmd_material.enabled_toon_edge = line_color[3] >= self.edge_threshold
mmd_material.edge_color = line_color[:3] + [max(line_color[3], self.edge_alpha_min)]
finally:
FnMaterial.set_nodes_are_readonly(False)
from .display_item import DisplayItemQuickSetup
FnBone.sync_display_item_frames_from_bone_collections(armature_object)
mmd_model.initialDisplayFrames(reset=False) # ensure default frames
DisplayItemQuickSetup.load_facial_items(root_object.mmd_root)
root_object.mmd_root.active_display_item_frame = 0
class ResetObjectVisibility(bpy.types.Operator):
bl_idname = "mmd_tools.reset_object_visibility"
bl_label = "Reset Object Visivility"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
@classmethod
def poll(cls, context: bpy.types.Context):
active_object: bpy.types.Object = context.active_object
return FnModel.find_root_object(active_object) is not None
def execute(self, context: bpy.types.Context):
active_object: bpy.types.Object = context.active_object
mmd_root_object = FnModel.find_root_object(active_object)
assert mmd_root_object is not None
mmd_root = mmd_root_object.mmd_root
mmd_root_object.hide_set(False)
rigid_group_object = FnModel.find_rigid_group_object(mmd_root_object)
if rigid_group_object:
rigid_group_object.hide_set(True)
joint_group_object = FnModel.find_joint_group_object(mmd_root_object)
if joint_group_object:
joint_group_object.hide_set(True)
temporary_group_object = FnModel.find_temporary_group_object(mmd_root_object)
if temporary_group_object:
temporary_group_object.hide_set(True)
mmd_root.show_meshes = True
mmd_root.show_armature = True
mmd_root.show_temporary_objects = False
mmd_root.show_rigid_bodies = False
mmd_root.show_names_of_rigid_bodies = False
mmd_root.show_joints = False
mmd_root.show_names_of_joints = False
return {"FINISHED"}
class AssembleAll(bpy.types.Operator):
bl_idname = "mmd_tools.assemble_all"
bl_label = "Assemble All"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
active_object = context.active_object
root_object = FnModel.find_root_object(active_object)
assert root_object is not None
with FnContext.temp_override_active_layer_collection(context, root_object) as context:
rig = Model(root_object)
MigrationFnBone.fix_mmd_ik_limit_override(rig.armature())
FnBone.apply_additional_transformation(rig.armature())
rig.build()
rig.morph_slider.bind()
with context.temp_override(selected_objects=[active_object]):
bpy.ops.mmd_tools.sdef_bind()
root_object.mmd_root.use_property_driver = True
FnContext.set_active_object(context, active_object)
return {"FINISHED"}
class DisassembleAll(bpy.types.Operator):
bl_idname = "mmd_tools.disassemble_all"
bl_label = "Disassemble All"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
active_object = context.active_object
root_object = FnModel.find_root_object(active_object)
assert root_object is not None
with FnContext.temp_override_active_layer_collection(context, root_object) as context:
root_object.mmd_root.use_property_driver = False
with context.temp_override(selected_objects=[active_object]):
bpy.ops.mmd_tools.sdef_unbind()
rig = Model(root_object)
rig.morph_slider.unbind()
rig.clean()
FnBone.clean_additional_transformation(rig.armature())
FnContext.set_active_object(context, active_object)
return {"FINISHED"}
+313
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import itertools
from operator import itemgetter
from typing import Dict, List, Optional, Set
import bmesh
import bpy
from ..bpyutils import FnContext
from ..core.model import FnModel, Model
class MessageException(Exception):
"""Class for error with message."""
class ModelJoinByBonesOperator(bpy.types.Operator):
bl_idname = "mmd_tools.model_join_by_bones"
bl_label = "Model Join by Bones"
bl_options = {"REGISTER", "UNDO"}
join_type: bpy.props.EnumProperty(
name="Join Type",
items=[
("CONNECTED", "Connected", ""),
("OFFSET", "Keep Offset", ""),
],
default="OFFSET",
)
@classmethod
def poll(cls, context: bpy.types.Context):
active_object: Optional[bpy.types.Object] = context.active_object
if context.mode != "POSE":
return False
if active_object is None:
return False
if active_object.type != "ARMATURE":
return False
if len(list(filter(lambda o: o.type == "ARMATURE", context.selected_objects))) < 2:
return False
return len(context.selected_pose_bones) > 0
def invoke(self, context, event):
return context.window_manager.invoke_props_dialog(self)
def execute(self, context: bpy.types.Context):
try:
self.join(context)
except MessageException as ex:
self.report(type={"ERROR"}, message=str(ex))
return {"CANCELLED"}
return {"FINISHED"}
def join(self, context: bpy.types.Context):
bpy.ops.object.mode_set(mode="OBJECT")
parent_root_object = FnModel.find_root_object(context.active_object)
child_root_objects = {FnModel.find_root_object(o) for o in context.selected_objects}
child_root_objects.remove(parent_root_object)
if parent_root_object is None or len(child_root_objects) == 0:
raise MessageException("No MMD Models selected")
with FnContext.temp_override_active_layer_collection(context, parent_root_object):
FnModel.join_models(parent_root_object, child_root_objects)
bpy.ops.object.mode_set(mode="EDIT")
bpy.ops.armature.parent_set(type="OFFSET")
# Connect child bones
if self.join_type == "CONNECTED":
parent_edit_bone: bpy.types.EditBone = context.active_bone
child_edit_bones: Set[bpy.types.EditBone] = set(context.selected_bones)
child_edit_bones.remove(parent_edit_bone)
child_edit_bone: bpy.types.EditBone
for child_edit_bone in child_edit_bones:
child_edit_bone.use_connect = True
bpy.ops.object.mode_set(mode="POSE")
class ModelSeparateByBonesOperator(bpy.types.Operator):
bl_idname = "mmd_tools.model_separate_by_bones"
bl_label = "Model Separate by Bones"
bl_options = {"REGISTER", "UNDO"}
separate_armature: bpy.props.BoolProperty(name="Separate Armature", default=True)
include_descendant_bones: bpy.props.BoolProperty(name="Include Descendant Bones", default=True)
weight_threshold: bpy.props.FloatProperty(name="Weight Threshold", default=0.001, min=0.0, max=1.0, precision=4, subtype="FACTOR")
boundary_joint_owner: bpy.props.EnumProperty(
name="Boundary Joint Owner",
items=[
("SOURCE", "Source Model", ""),
("DESTINATION", "Destination Model", ""),
],
default="DESTINATION",
)
@classmethod
def poll(cls, context: bpy.types.Context):
active_object: Optional[bpy.types.Object] = context.active_object
if context.mode != "POSE":
return False
if active_object is None:
return False
if active_object.type != "ARMATURE":
return False
if FnModel.find_root_object(active_object) is None:
return False
return len(context.selected_pose_bones) > 0
def invoke(self, context, event):
return context.window_manager.invoke_props_dialog(self)
def execute(self, context: bpy.types.Context):
try:
self.separate(context)
except MessageException as ex:
self.report(type={"ERROR"}, message=str(ex))
return {"CANCELLED"}
return {"FINISHED"}
def separate(self, context: bpy.types.Context):
weight_threshold: float = self.weight_threshold
mmd_scale = 0.08
target_armature_object: bpy.types.Object = context.active_object
bpy.ops.object.mode_set(mode="EDIT")
root_bones: Set[bpy.types.EditBone] = set(context.selected_bones)
if self.include_descendant_bones:
for edit_bone in root_bones:
with context.temp_override(active_bone=edit_bone):
bpy.ops.armature.select_similar(type="CHILDREN", threshold=0.1)
separate_bones: Dict[str, bpy.types.EditBone] = {b.name: b for b in context.selected_bones}
deform_bones: Dict[str, bpy.types.EditBone] = {b.name: b for b in target_armature_object.data.edit_bones if b.use_deform}
mmd_root_object: bpy.types.Object = FnModel.find_root_object(context.active_object)
mmd_model = Model(mmd_root_object)
mmd_model_mesh_objects: List[bpy.types.Object] = list(mmd_model.meshes())
mmd_model_mesh_objects = list(self.select_weighted_vertices(mmd_model_mesh_objects, separate_bones, deform_bones, weight_threshold).keys())
# separate armature bones
separate_armature_object: Optional[bpy.types.Object]
if self.separate_armature:
target_armature_object.select_set(True)
bpy.ops.armature.separate()
separate_armature_object = next(iter([a for a in context.selected_objects if a != target_armature_object]), None)
bpy.ops.object.mode_set(mode="OBJECT")
# collect separate rigid bodies
separate_rigid_bodies: Set[bpy.types.Object] = {rigid_body_object for rigid_body_object in mmd_model.rigidBodies() if rigid_body_object.mmd_rigid.bone in separate_bones}
boundary_joint_owner_condition = any if self.boundary_joint_owner == "DESTINATION" else all
# collect separate joints
separate_joints: Set[bpy.types.Object] = {
joint_object
for joint_object in mmd_model.joints()
if boundary_joint_owner_condition(
[
joint_object.rigid_body_constraint.object1 in separate_rigid_bodies,
joint_object.rigid_body_constraint.object2 in separate_rigid_bodies,
]
)
}
separate_mesh_objects: Set[bpy.types.Object]
model2separate_mesh_objects: Dict[bpy.types.Object, bpy.types.Object]
if len(mmd_model_mesh_objects) == 0:
separate_mesh_objects = set()
model2separate_mesh_objects = dict()
else:
# select meshes
obj: bpy.types.Object
for obj in context.view_layer.objects:
obj.select_set(obj in mmd_model_mesh_objects)
context.view_layer.objects.active = mmd_model_mesh_objects[0]
# separate mesh by selected vertices
bpy.ops.object.mode_set(mode="EDIT")
bpy.ops.mesh.separate(type="SELECTED")
separate_mesh_objects: List[bpy.types.Object] = [m for m in context.selected_objects if m.type == "MESH" and m not in mmd_model_mesh_objects]
bpy.ops.object.mode_set(mode="OBJECT")
model2separate_mesh_objects = dict(zip(mmd_model_mesh_objects, separate_mesh_objects))
separate_model: Model = Model.create(mmd_root_object.mmd_root.name, mmd_root_object.mmd_root.name_e, mmd_scale, add_root_bone=False)
separate_model.initialDisplayFrames()
separate_root_object = separate_model.rootObject()
separate_root_object.matrix_world = mmd_root_object.matrix_world
separate_model_armature_object = separate_model.armature()
if self.separate_armature:
with context.temp_override(
active_object=separate_model_armature_object,
selected_editable_objects=[separate_model_armature_object, separate_armature_object],
):
bpy.ops.object.join()
# add mesh
with context.temp_override(
object=separate_model_armature_object,
selected_editable_objects=[separate_model_armature_object, *separate_mesh_objects],
):
bpy.ops.object.parent_set(type="OBJECT", keep_transform=True)
# replace mesh armature modifier.object
for separate_mesh in separate_mesh_objects:
armature_modifier: Optional[bpy.types.ArmatureModifier] = next(iter([m for m in separate_mesh.modifiers if m.type == "ARMATURE"]), None)
if armature_modifier is None:
armature_modifier: bpy.types.ArmatureModifier = separate_mesh.modifiers.new("mmd_bone_order_override", "ARMATURE")
armature_modifier.object = separate_model_armature_object
with context.temp_override(
object=separate_model.rigidGroupObject(),
selected_editable_objects=[separate_model.rigidGroupObject(), *separate_rigid_bodies],
):
bpy.ops.object.parent_set(type="OBJECT", keep_transform=True)
with context.temp_override(
object=separate_model.jointGroupObject(),
selected_editable_objects=[separate_model.jointGroupObject(), *separate_joints],
):
bpy.ops.object.parent_set(type="OBJECT", keep_transform=True)
# move separate objects to new collection
mmd_layer_collection = FnContext.find_user_layer_collection_by_object(context, mmd_root_object)
assert mmd_layer_collection is not None
separate_layer_collection = FnContext.find_user_layer_collection_by_object(context, separate_root_object)
assert separate_layer_collection is not None
if mmd_layer_collection.name != separate_layer_collection.name:
for separate_object in itertools.chain(separate_mesh_objects, separate_rigid_bodies, separate_joints):
separate_layer_collection.collection.objects.link(separate_object)
mmd_layer_collection.collection.objects.unlink(separate_object)
FnModel.copy_mmd_root(
separate_root_object,
mmd_root_object,
overwrite=True,
replace_name2values={
# replace related_mesh property values
"related_mesh": {m.data.name: s.data.name for m, s in model2separate_mesh_objects.items()}
},
)
def select_weighted_vertices(self, mmd_model_mesh_objects: List[bpy.types.Object], separate_bones: Dict[str, bpy.types.EditBone], deform_bones: Dict[str, bpy.types.EditBone], weight_threshold: float) -> Dict[bpy.types.Object, int]:
mesh2selected_vertex_count: Dict[bpy.types.Object, int] = dict()
target_bmesh: bmesh.types.BMesh = bmesh.new()
for mesh_object in mmd_model_mesh_objects:
vertex_groups: bpy.types.VertexGroups = mesh_object.vertex_groups
mesh: bpy.types.Mesh = mesh_object.data
target_bmesh.from_mesh(mesh, face_normals=False)
target_bmesh.select_mode |= {"VERT"}
deform_layer = target_bmesh.verts.layers.deform.verify()
selected_vertex_count = 0
vert: bmesh.types.BMVert
for vert in target_bmesh.verts:
vert.select_set(False)
# Find the largest weight vertex group
weights = [(group_index, weight) for group_index, weight in vert[deform_layer].items() if vertex_groups[group_index].name in deform_bones]
weights.sort(key=lambda i: vertex_groups[i[0]].name in separate_bones, reverse=True)
weights.sort(key=itemgetter(1), reverse=True)
group_index, weight = next(iter(weights), (0, -1))
if weight < weight_threshold:
continue
if vertex_groups[group_index].name not in separate_bones:
continue
selected_vertex_count += 1
vert.select_set(True)
if selected_vertex_count > 0:
mesh2selected_vertex_count[mesh_object] = selected_vertex_count
target_bmesh.select_flush_mode()
target_bmesh.to_mesh(mesh)
target_bmesh.clear()
return mesh2selected_vertex_count
+776
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
from typing import Optional, cast
import bpy
from mathutils import Quaternion, Vector
from ..core.model import FnModel
from .. import bpyutils, utils
from ..core.exceptions import MaterialNotFoundError
from ..core.material import FnMaterial
from ..core.morph import FnMorph
from ..utils import ItemMoveOp, ItemOp
# Util functions
def divide_vector_components(vec1, vec2):
if len(vec1) != len(vec2):
raise ValueError("Vectors should have the same number of components")
result = []
for v1, v2 in zip(vec1, vec2):
if v2 == 0:
if v1 == 0:
v2 = 1 # If we have a 0/0 case we change the divisor to 1
else:
raise ZeroDivisionError("Invalid Input: a non-zero value can't be divided by zero")
result.append(v1 / v2)
return result
def multiply_vector_components(vec1, vec2):
if len(vec1) != len(vec2):
raise ValueError("Vectors should have the same number of components")
result = []
for v1, v2 in zip(vec1, vec2):
result.append(v1 * v2)
return result
def special_division(n1, n2):
"""This function returns 0 in case of 0/0. If non-zero divided by zero case is found, an Exception is raised"""
if n2 == 0:
if n1 == 0:
n2 = 1
else:
raise ZeroDivisionError("Invalid Input: a non-zero value can't be divided by zero")
return n1 / n2
class AddMorph(bpy.types.Operator):
bl_idname = "mmd_tools.morph_add"
bl_label = "Add Morph"
bl_description = "Add a morph item to active morph list"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
mmd_root = root.mmd_root
morph_type = mmd_root.active_morph_type
morphs = getattr(mmd_root, morph_type)
morph, mmd_root.active_morph = ItemOp.add_after(morphs, mmd_root.active_morph)
morph.name = "New Morph"
if morph_type.startswith("uv"):
morph.data_type = "VERTEX_GROUP"
return {"FINISHED"}
class RemoveMorph(bpy.types.Operator):
bl_idname = "mmd_tools.morph_remove"
bl_label = "Remove Morph"
bl_description = "Remove morph item(s) from the list"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
all: bpy.props.BoolProperty(
name="All",
description="Delete all morph items",
default=False,
options={"SKIP_SAVE"},
)
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
mmd_root = root.mmd_root
morph_type = mmd_root.active_morph_type
if morph_type.startswith("material"):
bpy.ops.mmd_tools.clear_temp_materials()
elif morph_type.startswith("uv"):
bpy.ops.mmd_tools.clear_uv_morph_view()
morphs = getattr(mmd_root, morph_type)
if self.all:
morphs.clear()
mmd_root.active_morph = 0
else:
morphs.remove(mmd_root.active_morph)
mmd_root.active_morph = max(0, mmd_root.active_morph - 1)
return {"FINISHED"}
class MoveMorph(bpy.types.Operator, ItemMoveOp):
bl_idname = "mmd_tools.morph_move"
bl_label = "Move Morph"
bl_description = "Move active morph item up/down in the list"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
mmd_root = root.mmd_root
mmd_root.active_morph = self.move(
getattr(mmd_root, mmd_root.active_morph_type),
mmd_root.active_morph,
self.type,
)
return {"FINISHED"}
class CopyMorph(bpy.types.Operator):
bl_idname = "mmd_tools.morph_copy"
bl_label = "Copy Morph"
bl_description = "Make a copy of active morph in the list"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
assert root is not None
mmd_root = root.mmd_root
morph_type = mmd_root.active_morph_type
morphs = getattr(mmd_root, morph_type)
morph = ItemOp.get_by_index(morphs, mmd_root.active_morph)
if morph is None:
return {"CANCELLED"}
name_orig, name_tmp = morph.name, "_tmp%s" % str(morph.as_pointer())
if morph_type.startswith("vertex"):
for obj in FnModel.iterate_mesh_objects(root):
FnMorph.copy_shape_key(obj, name_orig, name_tmp)
elif morph_type.startswith("uv"):
if morph.data_type == "VERTEX_GROUP":
for obj in FnModel.iterate_mesh_objects(root):
FnMorph.copy_uv_morph_vertex_groups(obj, name_orig, name_tmp)
morph_new, mmd_root.active_morph = ItemOp.add_after(morphs, mmd_root.active_morph)
for k, v in morph.items():
morph_new[k] = v if k != "name" else name_tmp
morph_new.name = name_orig + "_copy" # trigger name check
return {"FINISHED"}
class OverwriteBoneMorphsFromActionPose(bpy.types.Operator):
bl_idname = "mmd_tools.morph_overwrite_from_active_action_pose"
bl_label = "Overwrite Bone Morphs from active Action Pose"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
@classmethod
def poll(cls, context):
root = FnModel.find_root_object(context.active_object)
if root is None:
return False
return root.mmd_root.active_morph_type == "bone_morphs"
def execute(self, context):
root = FnModel.find_root_object(context.active_object)
FnMorph.overwrite_bone_morphs_from_action_pose(FnModel.find_armature_object(root))
return {"FINISHED"}
class AddMorphOffset(bpy.types.Operator):
bl_idname = "mmd_tools.morph_offset_add"
bl_label = "Add Morph Offset"
bl_description = "Add a morph offset item to the list"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
mmd_root = root.mmd_root
morph_type = mmd_root.active_morph_type
morph = ItemOp.get_by_index(getattr(mmd_root, morph_type), mmd_root.active_morph)
if morph is None:
return {"CANCELLED"}
item, morph.active_data = ItemOp.add_after(morph.data, morph.active_data)
if morph_type.startswith("material"):
if obj.type == "MESH" and obj.mmd_type == "NONE":
item.related_mesh = obj.data.name
active_material = obj.active_material
if active_material and "_temp" not in active_material.name:
item.material = active_material.name
elif morph_type.startswith("bone"):
pose_bone = context.active_pose_bone
if pose_bone:
item.bone = pose_bone.name
item.location = pose_bone.location
item.rotation = pose_bone.rotation_quaternion
return {"FINISHED"}
class RemoveMorphOffset(bpy.types.Operator):
bl_idname = "mmd_tools.morph_offset_remove"
bl_label = "Remove Morph Offset"
bl_description = "Remove morph offset item(s) from the list"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
all: bpy.props.BoolProperty(
name="All",
description="Delete all morph offset items",
default=False,
options={"SKIP_SAVE"},
)
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
assert root is not None
mmd_root = root.mmd_root
morph_type = mmd_root.active_morph_type
morph = ItemOp.get_by_index(getattr(mmd_root, morph_type), mmd_root.active_morph)
if morph is None:
return {"CANCELLED"}
if morph_type.startswith("material"):
bpy.ops.mmd_tools.clear_temp_materials()
if self.all:
if morph_type.startswith("vertex"):
for obj in FnModel.iterate_mesh_objects(root):
FnMorph.remove_shape_key(obj, morph.name)
return {"FINISHED"}
elif morph_type.startswith("uv"):
if morph.data_type == "VERTEX_GROUP":
for obj in FnModel.iterate_mesh_objects(root):
FnMorph.store_uv_morph_data(obj, morph)
return {"FINISHED"}
morph.data.clear()
morph.active_data = 0
else:
morph.data.remove(morph.active_data)
morph.active_data = max(0, morph.active_data - 1)
return {"FINISHED"}
class InitMaterialOffset(bpy.types.Operator):
bl_idname = "mmd_tools.material_morph_offset_init"
bl_label = "Init Material Offset"
bl_description = "Set all offset values to target value"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
target_value: bpy.props.FloatProperty(
name="Target Value",
description="Target value",
default=0,
)
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
mmd_root = root.mmd_root
morph = mmd_root.material_morphs[mmd_root.active_morph]
mat_data = morph.data[morph.active_data]
val = self.target_value
mat_data.diffuse_color = mat_data.edge_color = (val,) * 4
mat_data.specular_color = mat_data.ambient_color = (val,) * 3
mat_data.shininess = mat_data.edge_weight = val
mat_data.texture_factor = mat_data.toon_texture_factor = mat_data.sphere_texture_factor = (val,) * 4
return {"FINISHED"}
class ApplyMaterialOffset(bpy.types.Operator):
bl_idname = "mmd_tools.apply_material_morph_offset"
bl_label = "Apply Material Offset"
bl_description = "Calculates the offsets and apply them, then the temporary material is removed"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
mmd_root = root.mmd_root
morph = mmd_root.material_morphs[mmd_root.active_morph]
mat_data = morph.data[morph.active_data]
if not mat_data.related_mesh:
self.report({"ERROR"}, "You need to choose a Related Mesh first")
return {"CANCELLED"}
meshObj = FnModel.find_mesh_object_by_name(morph.id_data, mat_data.related_mesh)
if meshObj is None:
self.report({"ERROR"}, "The model mesh can't be found")
return {"CANCELLED"}
try:
work_mat_name = mat_data.material + "_temp"
work_mat, base_mat = FnMaterial.swap_materials(meshObj, work_mat_name, mat_data.material)
except MaterialNotFoundError:
self.report({"ERROR"}, "Material not found")
return {"CANCELLED"}
base_mmd_mat = base_mat.mmd_material
work_mmd_mat = work_mat.mmd_material
if mat_data.offset_type == "MULT":
try:
diffuse_offset = divide_vector_components(work_mmd_mat.diffuse_color, base_mmd_mat.diffuse_color) + [special_division(work_mmd_mat.alpha, base_mmd_mat.alpha)]
specular_offset = divide_vector_components(work_mmd_mat.specular_color, base_mmd_mat.specular_color)
edge_offset = divide_vector_components(work_mmd_mat.edge_color, base_mmd_mat.edge_color)
mat_data.diffuse_color = diffuse_offset
mat_data.specular_color = specular_offset
mat_data.shininess = special_division(work_mmd_mat.shininess, base_mmd_mat.shininess)
mat_data.ambient_color = divide_vector_components(work_mmd_mat.ambient_color, base_mmd_mat.ambient_color)
mat_data.edge_color = edge_offset
mat_data.edge_weight = special_division(work_mmd_mat.edge_weight, base_mmd_mat.edge_weight)
except ZeroDivisionError:
mat_data.offset_type = "ADD" # If there is any 0 division we automatically switch it to type ADD
except ValueError:
self.report({"ERROR"}, "An unexpected error happened")
# We should stop on our tracks and re-raise the exception
raise
if mat_data.offset_type == "ADD":
diffuse_offset = list(work_mmd_mat.diffuse_color - base_mmd_mat.diffuse_color) + [work_mmd_mat.alpha - base_mmd_mat.alpha]
specular_offset = list(work_mmd_mat.specular_color - base_mmd_mat.specular_color)
edge_offset = Vector(work_mmd_mat.edge_color) - Vector(base_mmd_mat.edge_color)
mat_data.diffuse_color = diffuse_offset
mat_data.specular_color = specular_offset
mat_data.shininess = work_mmd_mat.shininess - base_mmd_mat.shininess
mat_data.ambient_color = work_mmd_mat.ambient_color - base_mmd_mat.ambient_color
mat_data.edge_color = list(edge_offset)
mat_data.edge_weight = work_mmd_mat.edge_weight - base_mmd_mat.edge_weight
FnMaterial.clean_materials(meshObj, can_remove=lambda m: m == work_mat)
return {"FINISHED"}
class CreateWorkMaterial(bpy.types.Operator):
bl_idname = "mmd_tools.create_work_material"
bl_label = "Create Work Material"
bl_description = "Creates a temporary material to edit this offset"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
mmd_root = root.mmd_root
morph = mmd_root.material_morphs[mmd_root.active_morph]
mat_data = morph.data[morph.active_data]
if not mat_data.related_mesh:
self.report({"ERROR"}, "You need to choose a Related Mesh first")
return {"CANCELLED"}
meshObj = FnModel.find_mesh_object_by_name(morph.id_data, mat_data.related_mesh)
if meshObj is None:
self.report({"ERROR"}, "The model mesh can't be found")
return {"CANCELLED"}
base_mat = meshObj.data.materials.get(mat_data.material, None)
if base_mat is None:
self.report({"ERROR"}, 'Material "%s" not found' % mat_data.material)
return {"CANCELLED"}
work_mat_name = base_mat.name + "_temp"
if work_mat_name in bpy.data.materials:
self.report({"ERROR"}, 'Temporary material "%s" is in use' % work_mat_name)
return {"CANCELLED"}
work_mat = base_mat.copy()
work_mat.name = work_mat_name
meshObj.data.materials.append(work_mat)
FnMaterial.swap_materials(meshObj, base_mat.name, work_mat.name)
base_mmd_mat = base_mat.mmd_material
work_mmd_mat = work_mat.mmd_material
work_mmd_mat.material_id = -1
# Apply the offsets
if mat_data.offset_type == "MULT":
diffuse_offset = multiply_vector_components(base_mmd_mat.diffuse_color, mat_data.diffuse_color[0:3])
specular_offset = multiply_vector_components(base_mmd_mat.specular_color, mat_data.specular_color)
edge_offset = multiply_vector_components(base_mmd_mat.edge_color, mat_data.edge_color)
ambient_offset = multiply_vector_components(base_mmd_mat.ambient_color, mat_data.ambient_color)
work_mmd_mat.diffuse_color = diffuse_offset
work_mmd_mat.alpha *= mat_data.diffuse_color[3]
work_mmd_mat.specular_color = specular_offset
work_mmd_mat.shininess *= mat_data.shininess
work_mmd_mat.ambient_color = ambient_offset
work_mmd_mat.edge_color = edge_offset
work_mmd_mat.edge_weight *= mat_data.edge_weight
elif mat_data.offset_type == "ADD":
diffuse_offset = Vector(base_mmd_mat.diffuse_color) + Vector(mat_data.diffuse_color[0:3])
specular_offset = Vector(base_mmd_mat.specular_color) + Vector(mat_data.specular_color)
edge_offset = Vector(base_mmd_mat.edge_color) + Vector(mat_data.edge_color)
ambient_offset = Vector(base_mmd_mat.ambient_color) + Vector(mat_data.ambient_color)
work_mmd_mat.diffuse_color = list(diffuse_offset)
work_mmd_mat.alpha += mat_data.diffuse_color[3]
work_mmd_mat.specular_color = list(specular_offset)
work_mmd_mat.shininess += mat_data.shininess
work_mmd_mat.ambient_color = list(ambient_offset)
work_mmd_mat.edge_color = list(edge_offset)
work_mmd_mat.edge_weight += mat_data.edge_weight
return {"FINISHED"}
class ClearTempMaterials(bpy.types.Operator):
bl_idname = "mmd_tools.clear_temp_materials"
bl_label = "Clear Temp Materials"
bl_description = "Clears all the temporary materials"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
assert root is not None
for meshObj in FnModel.iterate_mesh_objects(root):
def __pre_remove(m):
if m and "_temp" in m.name:
base_mat_name = m.name.split("_temp")[0]
try:
FnMaterial.swap_materials(meshObj, m.name, base_mat_name)
return True
except MaterialNotFoundError:
self.report({"WARNING"}, "Base material for %s was not found" % m.name)
return False
FnMaterial.clean_materials(meshObj, can_remove=__pre_remove)
return {"FINISHED"}
class ViewBoneMorph(bpy.types.Operator):
bl_idname = "mmd_tools.view_bone_morph"
bl_label = "View Bone Morph"
bl_description = "View the result of active bone morph"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
assert root is not None
mmd_root = root.mmd_root
armature = FnModel.find_armature_object(root)
utils.selectSingleBone(context, armature, None, True)
morph = mmd_root.bone_morphs[mmd_root.active_morph]
for morph_data in morph.data:
p_bone: Optional[bpy.types.PoseBone] = armature.pose.bones.get(morph_data.bone, None)
if p_bone:
p_bone.bone.select = True
mtx = (p_bone.matrix_basis.to_3x3() @ Quaternion(*morph_data.rotation.to_axis_angle()).to_matrix()).to_4x4()
mtx.translation = p_bone.location + morph_data.location
p_bone.matrix_basis = mtx
return {"FINISHED"}
class ClearBoneMorphView(bpy.types.Operator):
bl_idname = "mmd_tools.clear_bone_morph_view"
bl_label = "Clear Bone Morph View"
bl_description = "Reset transforms of all bones to their default values"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
assert root is not None
armature = FnModel.find_armature_object(root)
for p_bone in armature.pose.bones:
p_bone.matrix_basis.identity()
return {"FINISHED"}
class ApplyBoneMorph(bpy.types.Operator):
bl_idname = "mmd_tools.apply_bone_morph"
bl_label = "Apply Bone Morph"
bl_description = "Apply current pose to active bone morph"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
assert root is not None
armature = FnModel.find_armature_object(root)
mmd_root = root.mmd_root
morph = mmd_root.bone_morphs[mmd_root.active_morph]
morph.data.clear()
morph.active_data = 0
for p_bone in armature.pose.bones:
if p_bone.location.length > 0 or p_bone.matrix_basis.decompose()[1].angle > 0:
item = morph.data.add()
item.bone = p_bone.name
item.location = p_bone.location
item.rotation = p_bone.rotation_quaternion if p_bone.rotation_mode == "QUATERNION" else p_bone.matrix_basis.to_quaternion()
p_bone.bone.select = True
else:
p_bone.bone.select = False
return {"FINISHED"}
class SelectRelatedBone(bpy.types.Operator):
bl_idname = "mmd_tools.select_bone_morph_offset_bone"
bl_label = "Select Related Bone"
bl_description = "Select the bone assigned to this offset in the armature"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
assert root is not None
mmd_root = root.mmd_root
armature = FnModel.find_armature_object(root)
morph = mmd_root.bone_morphs[mmd_root.active_morph]
morph_data = morph.data[morph.active_data]
utils.selectSingleBone(context, armature, morph_data.bone)
return {"FINISHED"}
class EditBoneOffset(bpy.types.Operator):
bl_idname = "mmd_tools.edit_bone_morph_offset"
bl_label = "Edit Related Bone"
bl_description = "Applies the location and rotation of this offset to the bone"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
assert root is not None
mmd_root = root.mmd_root
armature = FnModel.find_armature_object(root)
morph = mmd_root.bone_morphs[mmd_root.active_morph]
morph_data = morph.data[morph.active_data]
p_bone = armature.pose.bones[morph_data.bone]
mtx = Quaternion(*morph_data.rotation.to_axis_angle()).to_matrix().to_4x4()
mtx.translation = morph_data.location
p_bone.matrix_basis = mtx
utils.selectSingleBone(context, armature, p_bone.name)
return {"FINISHED"}
class ApplyBoneOffset(bpy.types.Operator):
bl_idname = "mmd_tools.apply_bone_morph_offset"
bl_label = "Apply Bone Morph Offset"
bl_description = "Stores the current bone location and rotation into this offset"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
assert root is not None
mmd_root = root.mmd_root
armature = FnModel.find_armature_object(root)
assert armature is not None
morph = mmd_root.bone_morphs[mmd_root.active_morph]
morph_data = morph.data[morph.active_data]
p_bone = armature.pose.bones[morph_data.bone]
morph_data.location = p_bone.location
morph_data.rotation = p_bone.rotation_quaternion if p_bone.rotation_mode == "QUATERNION" else p_bone.matrix_basis.to_quaternion()
return {"FINISHED"}
class ViewUVMorph(bpy.types.Operator):
bl_idname = "mmd_tools.view_uv_morph"
bl_label = "View UV Morph"
bl_description = "View the result of active UV morph on current mesh object"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
assert root is not None
mmd_root = root.mmd_root
meshes = tuple(FnModel.iterate_mesh_objects(root))
if len(meshes) == 1:
obj = meshes[0]
elif obj not in meshes:
self.report({"ERROR"}, "Please select a mesh object")
return {"CANCELLED"}
meshObj = obj
bpy.ops.mmd_tools.clear_uv_morph_view()
selected = meshObj.select_get()
with bpyutils.select_object(meshObj):
mesh = cast(bpy.types.Mesh, meshObj.data)
morph = mmd_root.uv_morphs[mmd_root.active_morph]
uv_textures = mesh.uv_layers
base_uv_layers = [l for l in mesh.uv_layers if not l.name.startswith("_")]
if morph.uv_index >= len(base_uv_layers):
self.report({"ERROR"}, "Invalid uv index: %d" % morph.uv_index)
return {"CANCELLED"}
uv_layer_name = base_uv_layers[morph.uv_index].name
if morph.uv_index == 0 or uv_textures.active.name not in {uv_layer_name, "_" + uv_layer_name}:
uv_textures.active = uv_textures[uv_layer_name]
uv_layer_name = uv_textures.active.name
uv_tex = uv_textures.new(name="__uv.%s" % uv_layer_name)
if uv_tex is None:
self.report({"ERROR"}, "Failed to create a temporary uv layer")
return {"CANCELLED"}
offsets = FnMorph.get_uv_morph_offset_map(meshObj, morph).items()
offsets = {k: getattr(Vector(v), "zw" if uv_layer_name.startswith("_") else "xy") for k, v in offsets}
if len(offsets) > 0:
base_uv_data = mesh.uv_layers.active.data
temp_uv_data = mesh.uv_layers[uv_tex.name].data
for i, l in enumerate(mesh.loops):
select = temp_uv_data[i].select = l.vertex_index in offsets
if select:
temp_uv_data[i].uv = base_uv_data[i].uv + offsets[l.vertex_index]
uv_textures.active = uv_tex
uv_tex.active_render = True
meshObj.hide_set(False)
meshObj.select_set(selected)
return {"FINISHED"}
class ClearUVMorphView(bpy.types.Operator):
bl_idname = "mmd_tools.clear_uv_morph_view"
bl_label = "Clear UV Morph View"
bl_description = "Clear all temporary data of UV morphs"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
assert root is not None
for m in FnModel.iterate_mesh_objects(root):
mesh = m.data
uv_textures = getattr(mesh, "uv_textures", mesh.uv_layers)
for t in uv_textures:
if t.name.startswith("__uv."):
uv_textures.remove(t)
if len(uv_textures) > 0:
uv_textures[0].active_render = True
uv_textures.active_index = 0
animation_data = mesh.animation_data
if animation_data:
nla_tracks = animation_data.nla_tracks
for t in nla_tracks:
if t.name.startswith("__uv."):
nla_tracks.remove(t)
if animation_data.action and animation_data.action.name.startswith("__uv."):
animation_data.action = None
if animation_data.action is None and len(nla_tracks) == 0:
mesh.animation_data_clear()
for act in bpy.data.actions:
if act.name.startswith("__uv.") and act.users < 1:
bpy.data.actions.remove(act)
return {"FINISHED"}
class EditUVMorph(bpy.types.Operator):
bl_idname = "mmd_tools.edit_uv_morph"
bl_label = "Edit UV Morph"
bl_description = "Edit UV morph on a temporary UV layer (use UV Editor to edit the result)"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
@classmethod
def poll(cls, context):
obj = context.active_object
if obj.type != "MESH":
return False
active_uv_layer = obj.data.uv_layers.active
return active_uv_layer and active_uv_layer.name.startswith("__uv.")
def execute(self, context):
obj = context.active_object
meshObj = obj
selected = meshObj.select_get()
with bpyutils.select_object(meshObj):
mesh = cast(bpy.types.Mesh, meshObj.data)
bpy.ops.object.mode_set(mode="EDIT")
bpy.ops.mesh.select_mode(type="VERT", action="ENABLE")
bpy.ops.mesh.reveal() # unhide all vertices
bpy.ops.mesh.select_all(action="DESELECT")
bpy.ops.object.mode_set(mode="OBJECT")
vertices = mesh.vertices
for l, d in zip(mesh.loops, mesh.uv_layers.active.data):
if d.select:
vertices[l.vertex_index].select = True
polygons = mesh.polygons
polygons.active = getattr(next((p for p in polygons if all(vertices[i].select for i in p.vertices)), None), "index", polygons.active)
bpy.ops.object.mode_set(mode="EDIT")
meshObj.select_set(selected)
return {"FINISHED"}
class ApplyUVMorph(bpy.types.Operator):
bl_idname = "mmd_tools.apply_uv_morph"
bl_label = "Apply UV Morph"
bl_description = "Calculate the UV offsets of selected vertices and apply to active UV morph"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
@classmethod
def poll(cls, context):
obj = context.active_object
if obj.type != "MESH":
return False
active_uv_layer = obj.data.uv_layers.active
return active_uv_layer and active_uv_layer.name.startswith("__uv.")
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
mmd_root = root.mmd_root
meshObj = obj
selected = meshObj.select_get()
with bpyutils.select_object(meshObj):
mesh = cast(bpy.types.Mesh, meshObj.data)
morph = mmd_root.uv_morphs[mmd_root.active_morph]
base_uv_name = mesh.uv_layers.active.name[5:]
if base_uv_name not in mesh.uv_layers:
self.report({"ERROR"}, ' * UV map "%s" not found' % base_uv_name)
return {"CANCELLED"}
base_uv_data = mesh.uv_layers[base_uv_name].data
temp_uv_data = mesh.uv_layers.active.data
axis_type = "ZW" if base_uv_name.startswith("_") else "XY"
from collections import namedtuple
__OffsetData = namedtuple("OffsetData", "index, offset")
offsets = {}
vertices = mesh.vertices
for l, i0, i1 in zip(mesh.loops, base_uv_data, temp_uv_data):
if vertices[l.vertex_index].select and l.vertex_index not in offsets:
dx, dy = i1.uv - i0.uv
if abs(dx) > 0.0001 or abs(dy) > 0.0001:
offsets[l.vertex_index] = __OffsetData(l.vertex_index, (dx, dy, dx, dy))
FnMorph.store_uv_morph_data(meshObj, morph, offsets.values(), axis_type)
morph.data_type = "VERTEX_GROUP"
meshObj.select_set(selected)
return {"FINISHED"}
class CleanDuplicatedMaterialMorphs(bpy.types.Operator):
bl_idname = "mmd_tools.clean_duplicated_material_morphs"
bl_label = "Clean Duplicated Material Morphs"
bl_description = "Clean duplicated material morphs"
bl_options = {"REGISTER", "UNDO"}
@classmethod
def poll(cls, context):
return FnModel.find_root_object(context.active_object) is not None
def execute(self, context: bpy.types.Context):
mmd_root_object = FnModel.find_root_object(context.active_object)
FnMorph.clean_duplicated_material_morphs(mmd_root_object)
return {"FINISHED"}
+579
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@@ -0,0 +1,579 @@
# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import math
from typing import Dict, Optional, Tuple, cast
import bpy
from mathutils import Euler, Vector
from .. import utils
from ..bpyutils import FnContext, Props
from ..core import rigid_body
from ..core.model import FnModel, Model
from ..core.rigid_body import FnRigidBody
class SelectRigidBody(bpy.types.Operator):
bl_idname = "mmd_tools.rigid_body_select"
bl_label = "Select Rigid Body"
bl_description = "Select similar rigidbody objects which have the same property values with active rigidbody object"
bl_options = {"REGISTER", "UNDO"}
properties: bpy.props.EnumProperty(
name="Properties",
description="Select the properties to be compared",
options={"ENUM_FLAG"},
items=[
("collision_group_number", "Collision Group", "Collision group", 1),
("collision_group_mask", "Collision Group Mask", "Collision group mask", 2),
("type", "Rigid Type", "Rigid type", 4),
("shape", "Shape", "Collision shape", 8),
("bone", "Bone", "Target bone", 16),
],
default=set(),
)
hide_others: bpy.props.BoolProperty(
name="Hide Others",
description="Hide the rigidbody object which does not have the same property values with active rigidbody object",
default=False,
)
def invoke(self, context, event):
vm = context.window_manager
return vm.invoke_props_dialog(self)
@classmethod
def poll(cls, context):
return FnModel.is_rigid_body_object(context.active_object)
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
if root is None:
self.report({"ERROR"}, "The model root can't be found")
return {"CANCELLED"}
selection = set(FnModel.iterate_rigid_body_objects(root))
for prop_name in self.properties:
prop_value = getattr(obj.mmd_rigid, prop_name)
if prop_name == "collision_group_mask":
prop_value = tuple(prop_value)
for i in selection.copy():
if tuple(i.mmd_rigid.collision_group_mask) != prop_value:
selection.remove(i)
if self.hide_others:
i.select_set(False)
i.hide_set(True)
else:
for i in selection.copy():
if getattr(i.mmd_rigid, prop_name) != prop_value:
selection.remove(i)
if self.hide_others:
i.select_set(False)
i.hide_set(True)
for i in selection:
i.hide_set(False)
i.select_set(True)
return {"FINISHED"}
class AddRigidBody(bpy.types.Operator):
bl_idname = "mmd_tools.rigid_body_add"
bl_label = "Add Rigid Body"
bl_description = "Add Rigid Bodies to selected bones"
bl_options = {"REGISTER", "UNDO", "PRESET", "INTERNAL"}
name_j: bpy.props.StringProperty(
name="Name",
description="The name of rigid body ($name_j means use the japanese name of target bone)",
default="$name_j",
)
name_e: bpy.props.StringProperty(
name="Name(Eng)",
description="The english name of rigid body ($name_e means use the english name of target bone)",
default="$name_e",
)
collision_group_number: bpy.props.IntProperty(
name="Collision Group",
description="The collision group of the object",
min=0,
max=15,
)
collision_group_mask: bpy.props.BoolVectorProperty(
name="Collision Group Mask",
description="The groups the object can not collide with",
size=16,
subtype="LAYER",
)
rigid_type: bpy.props.EnumProperty(
name="Rigid Type",
description="Select rigid type",
items=[
(str(rigid_body.MODE_STATIC), "Bone", "Rigid body's orientation completely determined by attached bone", 1),
(str(rigid_body.MODE_DYNAMIC), "Physics", "Attached bone's orientation completely determined by rigid body", 2),
(str(rigid_body.MODE_DYNAMIC_BONE), "Physics + Bone", "Bone determined by combination of parent and attached rigid body", 3),
],
)
rigid_shape: bpy.props.EnumProperty(
name="Shape",
description="Select the collision shape",
items=[
("SPHERE", "Sphere", "", 1),
("BOX", "Box", "", 2),
("CAPSULE", "Capsule", "", 3),
],
)
size: bpy.props.FloatVectorProperty(
name="Size",
description="Size of the object, the values will multiply the length of target bone",
subtype="XYZ",
size=3,
min=0,
default=[0.6, 0.6, 0.6],
)
mass: bpy.props.FloatProperty(
name="Mass",
description="How much the object 'weights' irrespective of gravity",
min=0.001,
default=1,
)
friction: bpy.props.FloatProperty(
name="Friction",
description="Resistance of object to movement",
min=0,
soft_max=1,
default=0.5,
)
bounce: bpy.props.FloatProperty(
name="Restitution",
description="Tendency of object to bounce after colliding with another (0 = stays still, 1 = perfectly elastic)",
min=0,
soft_max=1,
)
linear_damping: bpy.props.FloatProperty(
name="Linear Damping",
description="Amount of linear velocity that is lost over time",
min=0,
max=1,
default=0.04,
)
angular_damping: bpy.props.FloatProperty(
name="Angular Damping",
description="Amount of angular velocity that is lost over time",
min=0,
max=1,
default=0.1,
)
def __add_rigid_body(self, context: bpy.types.Context, root_object: bpy.types.Object, pose_bone: Optional[bpy.types.PoseBone] = None):
name_j: str = self.name_j
name_e: str = self.name_e
size = self.size.copy()
loc = Vector((0.0, 0.0, 0.0))
rot = Euler((0.0, 0.0, 0.0))
bone_name: Optional[str] = None
if pose_bone is None:
size *= getattr(root_object, Props.empty_display_size)
else:
bone_name = pose_bone.name
mmd_bone = pose_bone.mmd_bone
name_j = name_j.replace("$name_j", mmd_bone.name_j or bone_name)
name_e = name_e.replace("$name_e", mmd_bone.name_e or bone_name)
target_bone = pose_bone.bone
loc = (target_bone.head_local + target_bone.tail_local) / 2
rot = target_bone.matrix_local.to_euler("YXZ")
rot.rotate_axis("X", math.pi / 2)
size *= target_bone.length
if 1:
pass # bypass resizing
elif self.rigid_shape == "SPHERE":
size.x *= 0.8
elif self.rigid_shape == "BOX":
size.x /= 3
size.y /= 3
size.z *= 0.8
elif self.rigid_shape == "CAPSULE":
size.x /= 3
return FnRigidBody.setup_rigid_body_object(
obj=FnRigidBody.new_rigid_body_object(context, FnModel.ensure_rigid_group_object(context, root_object)),
shape_type=rigid_body.shapeType(self.rigid_shape),
location=loc,
rotation=rot,
size=size,
dynamics_type=int(self.rigid_type),
name=name_j,
name_e=name_e,
collision_group_number=self.collision_group_number,
collision_group_mask=self.collision_group_mask,
mass=self.mass,
friction=self.friction,
bounce=self.bounce,
linear_damping=self.linear_damping,
angular_damping=self.angular_damping,
bone=bone_name,
)
@classmethod
def poll(cls, context):
root_object = FnModel.find_root_object(context.active_object)
if root_object is None:
return False
armature_object = FnModel.find_armature_object(root_object)
if armature_object is None:
return False
return True
def execute(self, context):
active_object = context.active_object
root_object = cast(bpy.types.Object, FnModel.find_root_object(active_object))
armature_object = cast(bpy.types.Object, FnModel.find_armature_object(root_object))
if active_object != armature_object:
FnContext.select_single_object(context, root_object).select_set(False)
elif armature_object.mode != "POSE":
bpy.ops.object.mode_set(mode="POSE")
selected_pose_bones = []
if context.selected_pose_bones:
selected_pose_bones = context.selected_pose_bones
armature_object.select_set(False)
if len(selected_pose_bones) > 0:
for pose_bone in selected_pose_bones:
rigid = self.__add_rigid_body(context, root_object, pose_bone)
rigid.select_set(True)
else:
rigid = self.__add_rigid_body(context, root_object)
rigid.select_set(True)
return {"FINISHED"}
def invoke(self, context, event):
no_bone = True
if context.selected_bones and len(context.selected_bones) > 0:
no_bone = False
elif context.selected_pose_bones and len(context.selected_pose_bones) > 0:
no_bone = False
if no_bone:
self.name_j = "Rigid"
self.name_e = "Rigid_e"
else:
if self.name_j == "Rigid":
self.name_j = "$name_j"
if self.name_e == "Rigid_e":
self.name_e = "$name_e"
vm = context.window_manager
return vm.invoke_props_dialog(self)
class RemoveRigidBody(bpy.types.Operator):
bl_idname = "mmd_tools.rigid_body_remove"
bl_label = "Remove Rigid Body"
bl_description = "Deletes the currently selected Rigid Body"
bl_options = {"REGISTER", "UNDO"}
@classmethod
def poll(cls, context):
return FnModel.is_rigid_body_object(context.active_object)
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
utils.selectAObject(obj) # ensure this is the only one object select
bpy.ops.object.delete(use_global=True)
if root:
utils.selectAObject(root)
return {"FINISHED"}
class RigidBodyBake(bpy.types.Operator):
bl_idname = "mmd_tools.ptcache_rigid_body_bake"
bl_label = "Bake"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context: bpy.types.Context):
with context.temp_override(scene=context.scene, point_cache=context.scene.rigidbody_world.point_cache):
bpy.ops.ptcache.bake("INVOKE_DEFAULT", bake=True)
return {"FINISHED"}
class RigidBodyDeleteBake(bpy.types.Operator):
bl_idname = "mmd_tools.ptcache_rigid_body_delete_bake"
bl_label = "Delete Bake"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context: bpy.types.Context):
with context.temp_override(scene=context.scene, point_cache=context.scene.rigidbody_world.point_cache):
bpy.ops.ptcache.free_bake("INVOKE_DEFAULT")
return {"FINISHED"}
class AddJoint(bpy.types.Operator):
bl_idname = "mmd_tools.joint_add"
bl_label = "Add Joint"
bl_description = "Add Joint(s) to selected rigidbody objects"
bl_options = {"REGISTER", "UNDO", "PRESET", "INTERNAL"}
use_bone_rotation: bpy.props.BoolProperty(
name="Use Bone Rotation",
description="Match joint orientation to bone orientation if enabled",
default=True,
)
limit_linear_lower: bpy.props.FloatVectorProperty(
name="Limit Linear Lower",
description="Lower limit of translation",
subtype="XYZ",
size=3,
)
limit_linear_upper: bpy.props.FloatVectorProperty(
name="Limit Linear Upper",
description="Upper limit of translation",
subtype="XYZ",
size=3,
)
limit_angular_lower: bpy.props.FloatVectorProperty(
name="Limit Angular Lower",
description="Lower limit of rotation",
subtype="EULER",
size=3,
min=-math.pi * 2,
max=math.pi * 2,
default=[-math.pi / 4] * 3,
)
limit_angular_upper: bpy.props.FloatVectorProperty(
name="Limit Angular Upper",
description="Upper limit of rotation",
subtype="EULER",
size=3,
min=-math.pi * 2,
max=math.pi * 2,
default=[math.pi / 4] * 3,
)
spring_linear: bpy.props.FloatVectorProperty(
name="Spring(Linear)",
description="Spring constant of movement",
subtype="XYZ",
size=3,
min=0,
)
spring_angular: bpy.props.FloatVectorProperty(
name="Spring(Angular)",
description="Spring constant of rotation",
subtype="XYZ",
size=3,
min=0,
)
def __enumerate_rigid_pair(self, bone_map: Dict[bpy.types.Object, Optional[bpy.types.Bone]]):
obj_seq = tuple(bone_map.keys())
for rigid_a, bone_a in bone_map.items():
for rigid_b, bone_b in bone_map.items():
if bone_a and bone_b and bone_b.parent == bone_a:
obj_seq = ()
yield (rigid_a, rigid_b)
if len(obj_seq) == 2:
if obj_seq[1].mmd_rigid.type == str(rigid_body.MODE_STATIC):
yield (obj_seq[1], obj_seq[0])
else:
yield obj_seq
def __add_joint(self, context: bpy.types.Context, root_object: bpy.types.Object, rigid_pair: Tuple[bpy.types.Object, bpy.types.Object], bone_map):
loc: Optional[Vector] = None
rot = Euler((0.0, 0.0, 0.0))
rigid_a, rigid_b = rigid_pair
bone_a = bone_map[rigid_a]
bone_b = bone_map[rigid_b]
if bone_a and bone_b:
if bone_a.parent == bone_b:
rigid_b, rigid_a = rigid_a, rigid_b
bone_b, bone_a = bone_a, bone_b
if bone_b.parent == bone_a:
loc = bone_b.head_local
if self.use_bone_rotation:
rot = bone_b.matrix_local.to_euler("YXZ")
rot.rotate_axis("X", math.pi / 2)
if loc is None:
loc = (rigid_a.location + rigid_b.location) / 2
name_j = rigid_b.mmd_rigid.name_j or rigid_b.name
name_e = rigid_b.mmd_rigid.name_e or rigid_b.name
return FnRigidBody.setup_joint_object(
obj=FnRigidBody.new_joint_object(context, FnModel.ensure_joint_group_object(context, root_object), FnModel.get_empty_display_size(root_object)),
name=name_j,
name_e=name_e,
location=loc,
rotation=rot,
rigid_a=rigid_a,
rigid_b=rigid_b,
maximum_location=self.limit_linear_upper,
minimum_location=self.limit_linear_lower,
maximum_rotation=self.limit_angular_upper,
minimum_rotation=self.limit_angular_lower,
spring_linear=self.spring_linear,
spring_angular=self.spring_angular,
)
@classmethod
def poll(cls, context):
root_object = FnModel.find_root_object(context.active_object)
if root_object is None:
return False
armature_object = FnModel.find_armature_object(root_object)
if armature_object is None:
return False
return True
def execute(self, context):
active_object = context.active_object
root_object = cast(bpy.types.Object, FnModel.find_root_object(active_object))
armature_object = cast(bpy.types.Object, FnModel.find_armature_object(root_object))
bones = cast(bpy.types.Armature, armature_object.data).bones
bone_map: Dict[bpy.types.Object, Optional[bpy.types.Bone]] = {r: bones.get(r.mmd_rigid.bone, None) for r in FnModel.iterate_rigid_body_objects(root_object) if r.select_get()}
if len(bone_map) < 2:
self.report({"ERROR"}, "Please select two or more mmd rigid objects")
return {"CANCELLED"}
FnContext.select_single_object(context, root_object).select_set(False)
if context.scene.rigidbody_world is None:
bpy.ops.rigidbody.world_add()
for pair in self.__enumerate_rigid_pair(bone_map):
joint = self.__add_joint(context, root_object, pair, bone_map)
joint.select_set(True)
return {"FINISHED"}
def invoke(self, context, event):
vm = context.window_manager
return vm.invoke_props_dialog(self)
class RemoveJoint(bpy.types.Operator):
bl_idname = "mmd_tools.joint_remove"
bl_label = "Remove Joint"
bl_description = "Deletes the currently selected Joint"
bl_options = {"REGISTER", "UNDO"}
@classmethod
def poll(cls, context):
return FnModel.is_joint_object(context.active_object)
def execute(self, context):
obj = context.active_object
root = FnModel.find_root_object(obj)
utils.selectAObject(obj) # ensure this is the only one object select
bpy.ops.object.delete(use_global=True)
if root:
utils.selectAObject(root)
return {"FINISHED"}
class UpdateRigidBodyWorld(bpy.types.Operator):
bl_idname = "mmd_tools.rigid_body_world_update"
bl_label = "Update Rigid Body World"
bl_description = "Update rigid body world and references of rigid body constraint according to current scene objects (experimental)"
bl_options = {"REGISTER", "UNDO"}
@staticmethod
def __get_rigid_body_world_objects():
rigid_body.setRigidBodyWorldEnabled(True)
rbw = bpy.context.scene.rigidbody_world
if not rbw.collection:
rbw.collection = bpy.data.collections.new("RigidBodyWorld")
rbw.collection.use_fake_user = True
if not rbw.constraints:
rbw.constraints = bpy.data.collections.new("RigidBodyConstraints")
rbw.constraints.use_fake_user = True
bpy.context.scene.rigidbody_world.substeps_per_frame = 6
bpy.context.scene.rigidbody_world.solver_iterations = 10
return rbw.collection.objects, rbw.constraints.objects
def execute(self, context):
scene = context.scene
scene_objs = set(scene.objects)
scene_objs.union(o for x in scene.objects if x.instance_type == "COLLECTION" and x.instance_collection for o in x.instance_collection.objects)
def _update_group(obj, group):
if obj in scene_objs:
if obj not in group.values():
group.link(obj)
return True
elif obj in group.values():
group.unlink(obj)
return False
def _references(obj):
yield obj
if getattr(obj, "proxy", None):
yield from _references(obj.proxy)
if getattr(obj, "override_library", None):
yield from _references(obj.override_library.reference)
need_rebuild_physics = scene.rigidbody_world is None or scene.rigidbody_world.collection is None or scene.rigidbody_world.constraints is None
rb_objs, rbc_objs = self.__get_rigid_body_world_objects()
objects = bpy.data.objects
table = {}
# Perhaps due to a bug in Blender,
# when bpy.ops.rigidbody.world_remove(),
# Object.rigid_body are removed,
# but Object.rigid_body_constraint are retained.
# Therefore, it must be checked with Object.mmd_type.
for i in (x for x in objects if x.mmd_type == "RIGID_BODY"):
if not _update_group(i, rb_objs):
continue
rb_map = table.setdefault(FnModel.find_root_object(i), {})
if i in rb_map: # means rb_map[i] will replace i
rb_objs.unlink(i)
continue
for r in _references(i):
rb_map[r] = i
# TODO Modify mmd_rigid to allow recovery of the remaining rigidbody parameters.
# mass, friction, restitution, linear_dumping, angular_dumping
for i in (x for x in objects if x.rigid_body_constraint):
if not _update_group(i, rbc_objs):
continue
rbc, root_object = i.rigid_body_constraint, FnModel.find_root_object(i)
rb_map = table.get(root_object, {})
rbc.object1 = rb_map.get(rbc.object1, rbc.object1)
rbc.object2 = rb_map.get(rbc.object2, rbc.object2)
if need_rebuild_physics:
for root_object in scene.objects:
if root_object.mmd_type != "ROOT":
continue
if not root_object.mmd_root.is_built:
continue
with FnContext.temp_override_active_layer_collection(context, root_object):
Model(root_object).build()
# After rebuild. First play. Will be crash!
# But saved it before. Reload after crash. The play can be work.
return {"FINISHED"}
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
from typing import Set
import bpy
from bpy.types import Operator
from ..core.model import FnModel
from ..core.sdef import FnSDEF
def _get_target_objects(context):
root_objects: Set[bpy.types.Object] = set()
selected_objects: Set[bpy.types.Object] = set()
for i in context.selected_objects:
if i.type == "MESH":
selected_objects.add(i)
continue
root_object = FnModel.find_root_object(i)
if root_object is None:
continue
if root_object in root_objects:
continue
root_objects.add(root_object)
selected_objects |= set(FnModel.iterate_mesh_objects(root_object))
return selected_objects, root_objects
class ResetSDEFCache(Operator):
bl_idname = "mmd_tools.sdef_cache_reset"
bl_label = "Reset MMD SDEF cache"
bl_description = "Reset MMD SDEF cache of selected objects and clean unused cache"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
def execute(self, context):
target_meshes, _ = _get_target_objects(context)
for i in target_meshes:
FnSDEF.clear_cache(i)
FnSDEF.clear_cache(unused_only=True)
return {"FINISHED"}
class BindSDEF(Operator):
bl_idname = "mmd_tools.sdef_bind"
bl_label = "Bind SDEF Driver"
bl_description = "Bind MMD SDEF data of selected objects"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
mode: bpy.props.EnumProperty(
name="Mode",
description="Select mode",
items=[
("2", "Bulk", "Speed up with numpy (may be slower in some cases)", 2),
("1", "Normal", "Normal mode", 1),
("0", "- Auto -", "Select best mode by benchmark result", 0),
],
default="0",
)
use_skip: bpy.props.BoolProperty(
name="Skip",
description="Skip when the bones are not moving",
default=True,
)
use_scale: bpy.props.BoolProperty(
name="Scale",
description="Support bone scaling (slow)",
default=False,
)
def invoke(self, context, event):
vm = context.window_manager
return vm.invoke_props_dialog(self)
# TODO: Utility Functionalize
def execute(self, context):
target_meshes, root_objects = _get_target_objects(context)
for r in root_objects:
r.mmd_root.use_sdef = True
param = ((None, False, True)[int(self.mode)], self.use_skip, self.use_scale)
count = sum(FnSDEF.bind(i, *param) for i in target_meshes)
self.report({"INFO"}, f"Binded {count} of {len(target_meshes)} selected mesh(es)")
return {"FINISHED"}
class UnbindSDEF(Operator):
bl_idname = "mmd_tools.sdef_unbind"
bl_label = "Unbind SDEF Driver"
bl_description = "Unbind MMD SDEF data of selected objects"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
# TODO: Utility Functionalize
def execute(self, context):
target_meshes, root_objects = _get_target_objects(context)
for i in target_meshes:
FnSDEF.unbind(i)
for r in root_objects:
r.mmd_root.use_sdef = False
return {"FINISHED"}
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
from typing import TYPE_CHECKING, cast
import bpy
from ..core.model import FnModel, Model
from ..core.translations import MMD_DATA_TYPE_TO_HANDLERS, FnTranslations
from ..translations import DictionaryEnum
if TYPE_CHECKING:
from ..properties.translations import MMDTranslation, MMDTranslationElement, MMDTranslationElementIndex
class TranslateMMDModel(bpy.types.Operator):
bl_idname = "mmd_tools.translate_mmd_model"
bl_label = "Translate a MMD Model"
bl_description = "Translate Japanese names of a MMD model"
bl_options = {"REGISTER", "UNDO", "INTERNAL"}
dictionary: bpy.props.EnumProperty(
name="Dictionary",
items=DictionaryEnum.get_dictionary_items,
description="Translate names from Japanese to English using selected dictionary",
)
types: bpy.props.EnumProperty(
name="Types",
description="Select which parts will be translated",
options={"ENUM_FLAG"},
items=[
("BONE", "Bones", "Bones", 1),
("MORPH", "Morphs", "Morphs", 2),
("MATERIAL", "Materials", "Materials", 4),
("DISPLAY", "Display", "Display frames", 8),
("PHYSICS", "Physics", "Rigidbodies and joints", 16),
("INFO", "Information", "Model name and comments", 32),
],
default={
"BONE",
"MORPH",
"MATERIAL",
"DISPLAY",
"PHYSICS",
},
)
modes: bpy.props.EnumProperty(
name="Modes",
description="Select translation mode",
options={"ENUM_FLAG"},
items=[
("MMD", "MMD Names", "Fill MMD English names", 1),
("BLENDER", "Blender Names", "Translate blender names (experimental)", 2),
],
default={"MMD"},
)
use_morph_prefix: bpy.props.BoolProperty(
name="Use Morph Prefix",
description="Add/remove prefix to English name of morph",
default=False,
)
overwrite: bpy.props.BoolProperty(
name="Overwrite",
description="Overwrite a translated English name",
default=False,
)
allow_fails: bpy.props.BoolProperty(
name="Allow Fails",
description="Allow incompletely translated names",
default=False,
)
@classmethod
def poll(cls, context):
obj = context.active_object
return obj in context.selected_objects and FnModel.find_root_object(obj)
def invoke(self, context, event):
vm = context.window_manager
return vm.invoke_props_dialog(self)
def execute(self, context):
try:
self.__translator = DictionaryEnum.get_translator(self.dictionary)
except Exception as e:
self.report({"ERROR"}, "Failed to load dictionary: %s" % e)
return {"CANCELLED"}
obj = context.active_object
root = FnModel.find_root_object(obj)
rig = Model(root)
if "MMD" in self.modes:
for i in self.types:
getattr(self, "translate_%s" % i.lower())(rig)
if "BLENDER" in self.modes:
self.translate_blender_names(rig)
translator = self.__translator
txt = translator.save_fails()
if translator.fails:
self.report({"WARNING"}, "Failed to translate %d names, see '%s' in text editor" % (len(translator.fails), txt.name))
return {"FINISHED"}
def translate(self, name_j, name_e):
if not self.overwrite and name_e and self.__translator.is_translated(name_e):
return name_e
if self.allow_fails:
name_e = None
return self.__translator.translate(name_j, name_e)
def translate_blender_names(self, rig: Model):
if "BONE" in self.types:
for b in rig.armature().pose.bones:
rig.renameBone(b.name, self.translate(b.name, b.name))
if "MORPH" in self.types:
for i in (x for x in rig.meshes() if x.data.shape_keys):
for kb in i.data.shape_keys.key_blocks:
kb.name = self.translate(kb.name, kb.name)
if "MATERIAL" in self.types:
for m in (x for x in rig.materials() if x):
m.name = self.translate(m.name, m.name)
if "DISPLAY" in self.types:
g: bpy.types.BoneCollection
for g in cast(bpy.types.Armature, rig.armature().data).collections:
g.name = self.translate(g.name, g.name)
if "PHYSICS" in self.types:
for i in rig.rigidBodies():
i.name = self.translate(i.name, i.name)
for i in rig.joints():
i.name = self.translate(i.name, i.name)
if "INFO" in self.types:
objects = [rig.rootObject(), rig.armature()]
objects.extend(rig.meshes())
for i in objects:
i.name = self.translate(i.name, i.name)
def translate_info(self, rig):
mmd_root = rig.rootObject().mmd_root
mmd_root.name_e = self.translate(mmd_root.name, mmd_root.name_e)
comment_text = bpy.data.texts.get(mmd_root.comment_text, None)
comment_e_text = bpy.data.texts.get(mmd_root.comment_e_text, None)
if comment_text and comment_e_text:
comment_e = self.translate(comment_text.as_string(), comment_e_text.as_string())
comment_e_text.from_string(comment_e)
def translate_bone(self, rig):
bones = rig.armature().pose.bones
for b in bones:
if b.is_mmd_shadow_bone:
continue
b.mmd_bone.name_e = self.translate(b.mmd_bone.name_j, b.mmd_bone.name_e)
def translate_morph(self, rig):
mmd_root = rig.rootObject().mmd_root
attr_list = ("group", "vertex", "bone", "uv", "material")
prefix_list = ("G_", "", "B_", "UV_", "M_")
for attr, prefix in zip(attr_list, prefix_list):
for m in getattr(mmd_root, attr + "_morphs", []):
m.name_e = self.translate(m.name, m.name_e)
if not prefix:
continue
if self.use_morph_prefix:
if not m.name_e.startswith(prefix):
m.name_e = prefix + m.name_e
elif m.name_e.startswith(prefix):
m.name_e = m.name_e[len(prefix) :]
def translate_material(self, rig):
for m in rig.materials():
if m is None:
continue
m.mmd_material.name_e = self.translate(m.mmd_material.name_j, m.mmd_material.name_e)
def translate_display(self, rig):
mmd_root = rig.rootObject().mmd_root
for f in mmd_root.display_item_frames:
f.name_e = self.translate(f.name, f.name_e)
def translate_physics(self, rig):
for i in rig.rigidBodies():
i.mmd_rigid.name_e = self.translate(i.mmd_rigid.name_j, i.mmd_rigid.name_e)
for i in rig.joints():
i.mmd_joint.name_e = self.translate(i.mmd_joint.name_j, i.mmd_joint.name_e)
DEFAULT_SHOW_ROW_COUNT = 20
class MMD_TOOLS_UL_MMDTranslationElementIndex(bpy.types.UIList):
def draw_item(self, context, layout: bpy.types.UILayout, data, mmd_translation_element_index: "MMDTranslationElementIndex", icon, active_data, active_propname, index: int):
mmd_translation_element: "MMDTranslationElement" = data.translation_elements[mmd_translation_element_index.value]
MMD_DATA_TYPE_TO_HANDLERS[mmd_translation_element.type].draw_item(layout, mmd_translation_element, index)
class RestoreMMDDataReferenceOperator(bpy.types.Operator):
bl_idname = "mmd_tools.restore_mmd_translation_element_name"
bl_label = "Restore this Name"
bl_options = {"INTERNAL"}
index: bpy.props.IntProperty()
prop_name: bpy.props.StringProperty()
restore_value: bpy.props.StringProperty()
def execute(self, context: bpy.types.Context):
root_object = FnModel.find_root_object(context.object)
mmd_translation_element_index = root_object.mmd_root.translation.filtered_translation_element_indices[self.index].value
mmd_translation_element = root_object.mmd_root.translation.translation_elements[mmd_translation_element_index]
setattr(mmd_translation_element, self.prop_name, self.restore_value)
return {"FINISHED"}
class GlobalTranslationPopup(bpy.types.Operator):
bl_idname = "mmd_tools.global_translation_popup"
bl_label = "Global Translation Popup"
bl_options = {"INTERNAL", "UNDO"}
@classmethod
def poll(cls, context):
return FnModel.find_root_object(context.object) is not None
def draw(self, _context):
layout = self.layout
mmd_translation = self._mmd_translation
col = layout.column(align=True)
col.label(text="Filter", icon="FILTER")
row = col.row()
row.prop(mmd_translation, "filter_types")
group = row.row(align=True, heading="is Blank:")
group.alignment = "RIGHT"
group.prop(mmd_translation, "filter_japanese_blank", toggle=True, text="Japanese")
group.prop(mmd_translation, "filter_english_blank", toggle=True, text="English")
group = row.row(align=True)
group.prop(mmd_translation, "filter_restorable", toggle=True, icon="FILE_REFRESH", icon_only=True)
group.prop(mmd_translation, "filter_selected", toggle=True, icon="RESTRICT_SELECT_OFF", icon_only=True)
group.prop(mmd_translation, "filter_visible", toggle=True, icon="HIDE_OFF", icon_only=True)
col = layout.column(align=True)
box = col.box().column(align=True)
row = box.row(align=True)
row.label(text="Select the target column for Batch Operations:", icon="TRACKER")
row = box.row(align=True)
row.label(text="", icon="BLANK1")
row.prop(mmd_translation, "batch_operation_target", expand=True)
row.label(text="", icon="RESTRICT_SELECT_OFF")
row.label(text="", icon="HIDE_OFF")
if len(mmd_translation.filtered_translation_element_indices) > DEFAULT_SHOW_ROW_COUNT:
row.label(text="", icon="BLANK1")
col.template_list(
"MMD_TOOLS_UL_MMDTranslationElementIndex",
"",
mmd_translation,
"filtered_translation_element_indices",
mmd_translation,
"filtered_translation_element_indices_active_index",
rows=DEFAULT_SHOW_ROW_COUNT,
)
box = layout.box().column(align=True)
box.label(text="Batch Operation:", icon="MODIFIER")
box.prop(mmd_translation, "batch_operation_script", text="", icon="SCRIPT")
box.separator()
row = box.row()
row.prop(mmd_translation, "batch_operation_script_preset", text="Preset", icon="CON_TRANSFORM_CACHE")
row.operator(ExecuteTranslationBatchOperator.bl_idname, text="Execute")
box.separator()
translation_box = box.box().column(align=True)
translation_box.label(text="Dictionaries:", icon="HELP")
row = translation_box.row()
row.prop(mmd_translation, "dictionary", text="to_english")
# row.operator(ExecuteTranslationScriptOperator.bl_idname, text='Write to .csv')
translation_box.separator()
row = translation_box.row()
row.prop(mmd_translation, "dictionary", text="replace")
def invoke(self, context: bpy.types.Context, _event):
root_object = FnModel.find_root_object(context.object)
if root_object is None:
return {"CANCELLED"}
mmd_translation: "MMDTranslation" = root_object.mmd_root.translation
self._mmd_translation = mmd_translation
FnTranslations.clear_data(mmd_translation)
FnTranslations.collect_data(mmd_translation)
FnTranslations.update_query(mmd_translation)
return context.window_manager.invoke_props_dialog(self, width=800)
def execute(self, context):
root_object = FnModel.find_root_object(context.object)
if root_object is None:
return {"CANCELLED"}
FnTranslations.apply_translations(root_object)
FnTranslations.clear_data(root_object.mmd_root.translation)
return {"FINISHED"}
class ExecuteTranslationBatchOperator(bpy.types.Operator):
bl_idname = "mmd_tools.execute_translation_batch"
bl_label = "Execute Translation Batch"
bl_options = {"INTERNAL"}
def execute(self, context: bpy.types.Context):
root = FnModel.find_root_object(context.object)
if root is None:
return {"CANCELLED"}
fails, text = FnTranslations.execute_translation_batch(root)
if fails:
self.report({"WARNING"}, "Failed to translate %d names, see '%s' in text editor" % (len(fails), text.name))
return {"FINISHED"}
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import re
from bpy.types import Operator
from mathutils import Matrix
class _SetShadingBase:
bl_options = {"REGISTER", "UNDO"}
@staticmethod
def _get_view3d_spaces(context):
if getattr(context.area, "type", None) == "VIEW_3D":
return (context.area.spaces[0],)
return (area.spaces[0] for area in getattr(context.screen, "areas", ()) if area.type == "VIEW_3D")
@staticmethod
def _reset_color_management(context, use_display_device=True):
try:
context.scene.display_settings.display_device = ("None", "sRGB")[use_display_device]
except TypeError:
pass
@staticmethod
def _reset_material_shading(context, use_shadeless=False):
for i in (x for x in context.scene.objects if x.type == "MESH" and x.mmd_type == "NONE"):
for s in i.material_slots:
if s.material is None:
continue
s.material.use_nodes = False
s.material.use_shadeless = use_shadeless
def execute(self, context):
context.scene.render.engine = "BLENDER_EEVEE_NEXT"
shading_mode = getattr(self, "_shading_mode", None)
for space in self._get_view3d_spaces(context):
shading = space.shading
shading.type = "SOLID"
shading.light = "FLAT" if shading_mode == "SHADELESS" else "STUDIO"
shading.color_type = "TEXTURE" if shading_mode else "MATERIAL"
shading.show_object_outline = False
shading.show_backface_culling = False
return {"FINISHED"}
class SetGLSLShading(Operator, _SetShadingBase):
bl_idname = "mmd_tools.set_glsl_shading"
bl_label = "GLSL View"
bl_description = "Use GLSL shading with additional lighting"
_shading_mode = "GLSL"
class SetShadelessGLSLShading(Operator, _SetShadingBase):
bl_idname = "mmd_tools.set_shadeless_glsl_shading"
bl_label = "Shadeless GLSL View"
bl_description = "Use only toon shading"
_shading_mode = "SHADELESS"
class ResetShading(Operator, _SetShadingBase):
bl_idname = "mmd_tools.reset_shading"
bl_label = "Reset View"
bl_description = "Reset to default Blender shading"
class FlipPose(Operator):
bl_idname = "mmd_tools.flip_pose"
bl_label = "Flip Pose"
bl_description = "Apply the current pose of selected bones to matching bone on opposite side of X-Axis."
bl_options = {"REGISTER", "UNDO"}
# https://docs.blender.org/manual/en/dev/rigging/armatures/bones/editing/naming.html
__LR_REGEX = [
{"re": re.compile(r"^(.+)(RIGHT|LEFT)(\.\d+)?$", re.IGNORECASE), "lr": 1},
{"re": re.compile(r"^(.+)([\.\- _])(L|R)(\.\d+)?$", re.IGNORECASE), "lr": 2},
{"re": re.compile(r"^(LEFT|RIGHT)(.+)$", re.IGNORECASE), "lr": 0},
{"re": re.compile(r"^(L|R)([\.\- _])(.+)$", re.IGNORECASE), "lr": 0},
{"re": re.compile(r"^(.+)(左|右)(\.\d+)?$"), "lr": 1},
{"re": re.compile(r"^(左|右)(.+)$"), "lr": 0},
]
__LR_MAP = {
"RIGHT": "LEFT",
"Right": "Left",
"right": "left",
"LEFT": "RIGHT",
"Left": "Right",
"left": "right",
"L": "R",
"l": "r",
"R": "L",
"r": "l",
"": "",
"": "",
}
@classmethod
def flip_name(cls, name):
for regex in cls.__LR_REGEX:
match = regex["re"].match(name)
if match:
groups = match.groups()
lr = groups[regex["lr"]]
if lr in cls.__LR_MAP:
flip_lr = cls.__LR_MAP[lr]
name = ""
for i, s in enumerate(groups):
if i == regex["lr"]:
name += flip_lr
elif s:
name += s
return name
return ""
@staticmethod
def __cmul(vec1, vec2):
return type(vec1)([x * y for x, y in zip(vec1, vec2)])
@staticmethod
def __matrix_compose(loc, rot, scale):
return (Matrix.Translation(loc) @ rot.to_matrix().to_4x4()) @ Matrix([(scale[0], 0, 0, 0), (0, scale[1], 0, 0), (0, 0, scale[2], 0), (0, 0, 0, 1)])
@classmethod
def __flip_pose(cls, matrix_basis, bone_src, bone_dest):
from mathutils import Quaternion
m = bone_dest.bone.matrix_local.to_3x3().transposed()
mi = bone_src.bone.matrix_local.to_3x3().transposed().inverted() if bone_src != bone_dest else m.inverted()
loc, rot, scale = matrix_basis.decompose()
loc = cls.__cmul(mi @ loc, (-1, 1, 1))
rot = cls.__cmul(Quaternion(mi @ rot.axis, rot.angle).normalized(), (1, 1, -1, -1))
bone_dest.matrix_basis = cls.__matrix_compose(m @ loc, Quaternion(m @ rot.axis, rot.angle).normalized(), scale)
@classmethod
def poll(cls, context):
return context.active_object and context.active_object.type == "ARMATURE" and context.active_object.mode == "POSE"
def execute(self, context):
pose_bones = context.active_object.pose.bones
for b, mat in [(x, x.matrix_basis.copy()) for x in context.selected_pose_bones]:
self.__flip_pose(mat, b, pose_bones.get(self.flip_name(b.name), b))
return {"FINISHED"}
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import bpy
def patch_library_overridable(property: "bpy.props._PropertyDeferred") -> "bpy.props._PropertyDeferred":
"""Apply recursively for each mmd_tools property class annotations.
Args:
property: The property to be patched.
Returns:
The patched property.
"""
property.keywords.setdefault("override", set()).add("LIBRARY_OVERRIDABLE")
if property.function.__name__ not in {"PointerProperty", "CollectionProperty"}:
return property
property_type = property.keywords["type"]
# The __annotations__ cannot be inherited. Manually search for base classes.
for inherited_type in (property_type, *property_type.__bases__):
if not inherited_type.__module__.startswith("mmd_tools.properties"):
continue
for annotation in inherited_type.__annotations__.values():
if not isinstance(annotation, bpy.props._PropertyDeferred):
continue
patch_library_overridable(annotation)
return property
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import bpy
from .. import utils
from ..core import material
from ..core.material import FnMaterial
from ..core.model import FnModel
from . import patch_library_overridable
def _mmd_material_update_ambient_color(prop: "MMDMaterial", _context):
FnMaterial(prop.id_data).update_ambient_color()
def _mmd_material_update_diffuse_color(prop: "MMDMaterial", _context):
FnMaterial(prop.id_data).update_diffuse_color()
def _mmd_material_update_alpha(prop: "MMDMaterial", _context):
FnMaterial(prop.id_data).update_alpha()
def _mmd_material_update_specular_color(prop: "MMDMaterial", _context):
FnMaterial(prop.id_data).update_specular_color()
def _mmd_material_update_shininess(prop: "MMDMaterial", _context):
FnMaterial(prop.id_data).update_shininess()
def _mmd_material_update_is_double_sided(prop: "MMDMaterial", _context):
FnMaterial(prop.id_data).update_is_double_sided()
def _mmd_material_update_sphere_texture_type(prop: "MMDMaterial", context):
FnMaterial(prop.id_data).update_sphere_texture_type(context.active_object)
def _mmd_material_update_toon_texture(prop: "MMDMaterial", _context):
FnMaterial(prop.id_data).update_toon_texture()
def _mmd_material_update_enabled_drop_shadow(prop: "MMDMaterial", _context):
FnMaterial(prop.id_data).update_drop_shadow()
def _mmd_material_update_enabled_self_shadow_map(prop: "MMDMaterial", _context):
FnMaterial(prop.id_data).update_self_shadow_map()
def _mmd_material_update_enabled_self_shadow(prop: "MMDMaterial", _context):
FnMaterial(prop.id_data).update_self_shadow()
def _mmd_material_update_enabled_toon_edge(prop: "MMDMaterial", _context):
FnMaterial(prop.id_data).update_enabled_toon_edge()
def _mmd_material_update_edge_color(prop: "MMDMaterial", _context):
FnMaterial(prop.id_data).update_edge_color()
def _mmd_material_update_edge_weight(prop: "MMDMaterial", _context):
FnMaterial(prop.id_data).update_edge_weight()
def _mmd_material_get_name_j(prop: "MMDMaterial"):
return prop.get("name_j", "")
def _mmd_material_set_name_j(prop: "MMDMaterial", value: str):
prop_value = value
if prop_value and prop_value != prop.get("name_j"):
root = FnModel.find_root_object(bpy.context.active_object)
if root is None:
prop_value = utils.unique_name(value, {mat.mmd_material.name_j for mat in bpy.data.materials})
else:
prop_value = utils.unique_name(value, {mat.mmd_material.name_j for mat in FnModel.iterate_materials(root)})
prop["name_j"] = prop_value
# ===========================================
# Property classes
# ===========================================
class MMDMaterial(bpy.types.PropertyGroup):
"""マテリアル"""
name_j: bpy.props.StringProperty(
name="Name",
description="Japanese Name",
default="",
set=_mmd_material_set_name_j,
get=_mmd_material_get_name_j,
)
name_e: bpy.props.StringProperty(
name="Name(Eng)",
description="English Name",
default="",
)
material_id: bpy.props.IntProperty(
name="Material ID",
description="Unique ID for the reference of material morph",
default=-1,
min=-1,
)
ambient_color: bpy.props.FloatVectorProperty(
name="Ambient Color",
description="Ambient color",
subtype="COLOR",
size=3,
min=0,
max=1,
precision=3,
step=0.1,
default=[0.4, 0.4, 0.4],
update=_mmd_material_update_ambient_color,
)
diffuse_color: bpy.props.FloatVectorProperty(
name="Diffuse Color",
description="Diffuse color",
subtype="COLOR",
size=3,
min=0,
max=1,
precision=3,
step=0.1,
default=[0.8, 0.8, 0.8],
update=_mmd_material_update_diffuse_color,
)
alpha: bpy.props.FloatProperty(
name="Alpha",
description="Alpha transparency",
min=0,
max=1,
precision=3,
step=0.1,
default=1.0,
update=_mmd_material_update_alpha,
)
specular_color: bpy.props.FloatVectorProperty(
name="Specular Color",
description="Specular color",
subtype="COLOR",
size=3,
min=0,
max=1,
precision=3,
step=0.1,
default=[0.625, 0.625, 0.625],
update=_mmd_material_update_specular_color,
)
shininess: bpy.props.FloatProperty(
name="Reflect",
description="Sharpness of reflected highlights",
min=0,
soft_max=512,
step=100.0,
default=50.0,
update=_mmd_material_update_shininess,
)
is_double_sided: bpy.props.BoolProperty(
name="Double Sided",
description="Both sides of mesh should be rendered",
default=False,
update=_mmd_material_update_is_double_sided,
)
enabled_drop_shadow: bpy.props.BoolProperty(
name="Ground Shadow",
description="Display ground shadow",
default=True,
update=_mmd_material_update_enabled_drop_shadow,
)
enabled_self_shadow_map: bpy.props.BoolProperty(
name="Self Shadow Map",
description="Object can become shadowed by other objects",
default=True,
update=_mmd_material_update_enabled_self_shadow_map,
)
enabled_self_shadow: bpy.props.BoolProperty(
name="Self Shadow",
description="Object can cast shadows",
default=True,
update=_mmd_material_update_enabled_self_shadow,
)
enabled_toon_edge: bpy.props.BoolProperty(
name="Toon Edge",
description="Use toon edge",
default=False,
update=_mmd_material_update_enabled_toon_edge,
)
edge_color: bpy.props.FloatVectorProperty(
name="Edge Color",
description="Toon edge color",
subtype="COLOR",
size=4,
min=0,
max=1,
precision=3,
step=0.1,
default=[0, 0, 0, 1],
update=_mmd_material_update_edge_color,
)
edge_weight: bpy.props.FloatProperty(
name="Edge Weight",
description="Toon edge size",
min=0,
max=100,
soft_max=2,
step=1.0,
default=1.0,
update=_mmd_material_update_edge_weight,
)
sphere_texture_type: bpy.props.EnumProperty(
name="Sphere Map Type",
description="Choose sphere texture blend type",
items=[
(str(material.SPHERE_MODE_OFF), "Off", "", 1),
(str(material.SPHERE_MODE_MULT), "Multiply", "", 2),
(str(material.SPHERE_MODE_ADD), "Add", "", 3),
(str(material.SPHERE_MODE_SUBTEX), "SubTexture", "", 4),
],
update=_mmd_material_update_sphere_texture_type,
)
is_shared_toon_texture: bpy.props.BoolProperty(
name="Use Shared Toon Texture",
description="Use shared toon texture or custom toon texture",
default=False,
update=_mmd_material_update_toon_texture,
)
toon_texture: bpy.props.StringProperty(
name="Toon Texture",
subtype="FILE_PATH",
description="The file path of custom toon texture",
default="",
update=_mmd_material_update_toon_texture,
)
shared_toon_texture: bpy.props.IntProperty(
name="Shared Toon Texture",
description="Shared toon texture id (toon01.bmp ~ toon10.bmp)",
default=0,
min=0,
max=9,
update=_mmd_material_update_toon_texture,
)
comment: bpy.props.StringProperty(
name="Comment",
description="Comment",
)
def is_id_unique(self):
return self.material_id < 0 or not next((m for m in bpy.data.materials if m.mmd_material != self and m.mmd_material.material_id == self.material_id), None)
@staticmethod
def register():
bpy.types.Material.mmd_material = patch_library_overridable(bpy.props.PointerProperty(type=MMDMaterial))
@staticmethod
def unregister():
del bpy.types.Material.mmd_material
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import bpy
from .. import utils
from ..core.bone import FnBone
from ..core.material import FnMaterial
from ..core.model import FnModel, Model
from ..core.morph import FnMorph
def _morph_base_get_name(prop: "_MorphBase") -> str:
return prop.get("name", "")
def _morph_base_set_name(prop: "_MorphBase", value: str):
mmd_root = prop.id_data.mmd_root
# morph_type = mmd_root.active_morph_type
morph_type = "%s_morphs" % prop.bl_rna.identifier[:-5].lower()
# assert(prop.bl_rna.identifier.endswith('Morph'))
# logging.debug('_set_name: %s %s %s', prop, value, morph_type)
prop_name = prop.get("name", None)
if prop_name == value:
return
used_names = {x.name for x in getattr(mmd_root, morph_type) if x != prop}
value = utils.unique_name(value, used_names)
if prop_name is not None:
if morph_type == "vertex_morphs":
kb_list = {}
for mesh in FnModel.iterate_mesh_objects(prop.id_data):
for kb in getattr(mesh.data.shape_keys, "key_blocks", ()):
kb_list.setdefault(kb.name, []).append(kb)
if prop_name in kb_list:
value = utils.unique_name(value, used_names | kb_list.keys())
for kb in kb_list[prop_name]:
kb.name = value
elif morph_type == "uv_morphs":
vg_list = {}
for mesh in FnModel.iterate_mesh_objects(prop.id_data):
for vg, n, x in FnMorph.get_uv_morph_vertex_groups(mesh):
vg_list.setdefault(n, []).append(vg)
if prop_name in vg_list:
value = utils.unique_name(value, used_names | vg_list.keys())
for vg in vg_list[prop_name]:
vg.name = vg.name.replace(prop_name, value)
if 1: # morph_type != 'group_morphs':
for m in mmd_root.group_morphs:
for d in m.data:
if d.name == prop_name and d.morph_type == morph_type:
d.name = value
frame_facial = mmd_root.display_item_frames.get("表情")
for item in getattr(frame_facial, "data", []):
if item.name == prop_name and item.morph_type == morph_type:
item.name = value
break
obj = Model(prop.id_data).morph_slider.placeholder()
if obj and value not in obj.data.shape_keys.key_blocks:
kb = obj.data.shape_keys.key_blocks.get(prop_name, None)
if kb:
kb.name = value
prop["name"] = value
class _MorphBase:
name: bpy.props.StringProperty(
name="Name",
description="Japanese Name",
set=_morph_base_set_name,
get=_morph_base_get_name,
)
name_e: bpy.props.StringProperty(
name="Name(Eng)",
description="English Name",
default="",
)
category: bpy.props.EnumProperty(
name="Category",
description="Select category",
items=[
("SYSTEM", "Hidden", "", 0),
("EYEBROW", "Eye Brow", "", 1),
("EYE", "Eye", "", 2),
("MOUTH", "Mouth", "", 3),
("OTHER", "Other", "", 4),
],
default="OTHER",
)
def _bone_morph_data_get_bone(prop: "BoneMorphData") -> str:
bone_id = prop.get("bone_id", -1)
if bone_id < 0:
return ""
root_object = prop.id_data
armature_object = FnModel.find_armature_object(root_object)
if armature_object is None:
return ""
pose_bone = FnBone.find_pose_bone_by_bone_id(armature_object, bone_id)
if pose_bone is None:
return ""
return pose_bone.name
def _bone_morph_data_set_bone(prop: "BoneMorphData", value: str):
root = prop.id_data
arm = FnModel.find_armature_object(root)
# Load the library_override file. This function is triggered when loading, but the arm obj cannot be found.
# The arm obj is exist, but the relative relationship has not yet been established.
if arm is None:
return
if value not in arm.pose.bones.keys():
prop["bone_id"] = -1
return
pose_bone = arm.pose.bones[value]
prop["bone_id"] = FnBone.get_or_assign_bone_id(pose_bone)
def _bone_morph_data_update_location_or_rotation(prop: "BoneMorphData", _context):
if not prop.name.startswith("mmd_bind"):
return
arm = FnModel(prop.id_data).morph_slider.dummy_armature
if arm:
bone = arm.pose.bones.get(prop.name, None)
if bone:
bone.location = prop.location
bone.rotation_quaternion = prop.rotation.__class__(*prop.rotation.to_axis_angle()) # Fix for consistency
class BoneMorphData(bpy.types.PropertyGroup):
""" """
bone: bpy.props.StringProperty(
name="Bone",
description="Target bone",
set=_bone_morph_data_set_bone,
get=_bone_morph_data_get_bone,
)
bone_id: bpy.props.IntProperty(
name="Bone ID",
)
location: bpy.props.FloatVectorProperty(
name="Location",
description="Location",
subtype="TRANSLATION",
size=3,
default=[0, 0, 0],
update=_bone_morph_data_update_location_or_rotation,
)
rotation: bpy.props.FloatVectorProperty(
name="Rotation",
description="Rotation in quaternions",
subtype="QUATERNION",
size=4,
default=[1, 0, 0, 0],
update=_bone_morph_data_update_location_or_rotation,
)
class BoneMorph(_MorphBase, bpy.types.PropertyGroup):
"""Bone Morph"""
data: bpy.props.CollectionProperty(
name="Morph Data",
type=BoneMorphData,
)
active_data: bpy.props.IntProperty(
name="Active Bone Data",
min=0,
default=0,
)
def _material_morph_data_get_material(prop: "MaterialMorphData"):
mat_p = prop.get("material_data", None)
if mat_p is not None:
return mat_p.name
return ""
def _material_morph_data_set_material(prop: "MaterialMorphData", value: str):
if value not in bpy.data.materials:
prop["material_data"] = None
prop["material_id"] = -1
else:
mat = bpy.data.materials[value]
fnMat = FnMaterial(mat)
prop["material_data"] = mat
prop["material_id"] = fnMat.material_id
def _material_morph_data_set_related_mesh(prop: "MaterialMorphData", value: str):
mesh = FnModel.find_mesh_object_by_name(prop.id_data, value)
if mesh is not None:
prop["related_mesh_data"] = mesh.data
else:
prop["related_mesh_data"] = None
def _material_morph_data_get_related_mesh(prop):
mesh_p = prop.get("related_mesh_data", None)
if mesh_p is not None:
return mesh_p.name
return ""
def _material_morph_data_update_modifiable_values(prop: "MaterialMorphData", _context):
if not prop.name.startswith("mmd_bind"):
return
from ..core.shader import _MaterialMorph
mat = prop["material_data"]
if mat is not None:
_MaterialMorph.update_morph_inputs(mat, prop)
else:
for mat in FnModel(prop.id_data).materials():
_MaterialMorph.update_morph_inputs(mat, prop)
class MaterialMorphData(bpy.types.PropertyGroup):
""" """
related_mesh: bpy.props.StringProperty(
name="Related Mesh",
description="Stores a reference to the mesh where this morph data belongs to",
set=_material_morph_data_set_related_mesh,
get=_material_morph_data_get_related_mesh,
)
related_mesh_data: bpy.props.PointerProperty(
name="Related Mesh Data",
type=bpy.types.Mesh,
)
offset_type: bpy.props.EnumProperty(name="Offset Type", description="Select offset type", items=[("MULT", "Multiply", "", 0), ("ADD", "Add", "", 1)], default="ADD")
material: bpy.props.StringProperty(
name="Material",
description="Target material",
get=_material_morph_data_get_material,
set=_material_morph_data_set_material,
)
material_id: bpy.props.IntProperty(
name="Material ID",
default=-1,
)
material_data: bpy.props.PointerProperty(
name="Material Data",
type=bpy.types.Material,
)
diffuse_color: bpy.props.FloatVectorProperty(
name="Diffuse Color",
description="Diffuse color",
subtype="COLOR",
size=4,
soft_min=0,
soft_max=1,
precision=3,
step=0.1,
default=[0, 0, 0, 1],
update=_material_morph_data_update_modifiable_values,
)
specular_color: bpy.props.FloatVectorProperty(
name="Specular Color",
description="Specular color",
subtype="COLOR",
size=3,
soft_min=0,
soft_max=1,
precision=3,
step=0.1,
default=[0, 0, 0],
update=_material_morph_data_update_modifiable_values,
)
shininess: bpy.props.FloatProperty(
name="Reflect",
description="Reflect",
soft_min=0,
soft_max=500,
step=100.0,
default=0.0,
update=_material_morph_data_update_modifiable_values,
)
ambient_color: bpy.props.FloatVectorProperty(
name="Ambient Color",
description="Ambient color",
subtype="COLOR",
size=3,
soft_min=0,
soft_max=1,
precision=3,
step=0.1,
default=[0, 0, 0],
update=_material_morph_data_update_modifiable_values,
)
edge_color: bpy.props.FloatVectorProperty(
name="Edge Color",
description="Edge color",
subtype="COLOR",
size=4,
soft_min=0,
soft_max=1,
precision=3,
step=0.1,
default=[0, 0, 0, 1],
update=_material_morph_data_update_modifiable_values,
)
edge_weight: bpy.props.FloatProperty(
name="Edge Weight",
description="Edge weight",
soft_min=0,
soft_max=2,
step=0.1,
default=0,
update=_material_morph_data_update_modifiable_values,
)
texture_factor: bpy.props.FloatVectorProperty(
name="Texture factor",
description="Texture factor",
subtype="COLOR",
size=4,
soft_min=0,
soft_max=1,
precision=3,
step=0.1,
default=[0, 0, 0, 1],
update=_material_morph_data_update_modifiable_values,
)
sphere_texture_factor: bpy.props.FloatVectorProperty(
name="Sphere Texture factor",
description="Sphere texture factor",
subtype="COLOR",
size=4,
soft_min=0,
soft_max=1,
precision=3,
step=0.1,
default=[0, 0, 0, 1],
update=_material_morph_data_update_modifiable_values,
)
toon_texture_factor: bpy.props.FloatVectorProperty(
name="Toon Texture factor",
description="Toon texture factor",
subtype="COLOR",
size=4,
soft_min=0,
soft_max=1,
precision=3,
step=0.1,
default=[0, 0, 0, 1],
update=_material_morph_data_update_modifiable_values,
)
class MaterialMorph(_MorphBase, bpy.types.PropertyGroup):
"""Material Morph"""
data: bpy.props.CollectionProperty(
name="Morph Data",
type=MaterialMorphData,
)
active_data: bpy.props.IntProperty(
name="Active Material Data",
min=0,
default=0,
)
class UVMorphOffset(bpy.types.PropertyGroup):
"""UV Morph Offset"""
index: bpy.props.IntProperty(
name="Vertex Index",
description="Vertex index",
min=0,
default=0,
)
offset: bpy.props.FloatVectorProperty(
name="UV Offset",
description="UV offset",
size=4,
# min=-1,
# max=1,
# precision=3,
step=0.1,
default=[0, 0, 0, 0],
)
class UVMorph(_MorphBase, bpy.types.PropertyGroup):
"""UV Morph"""
uv_index: bpy.props.IntProperty(
name="UV Index",
description="UV index (UV, UV1 ~ UV4)",
min=0,
max=4,
default=0,
)
data_type: bpy.props.EnumProperty(
name="Data Type",
description="Select data type",
items=[
("DATA", "Data", "Store offset data in root object (deprecated)", 0),
("VERTEX_GROUP", "Vertex Group", "Store offset data in vertex groups", 1),
],
default="DATA",
)
data: bpy.props.CollectionProperty(
name="Morph Data",
type=UVMorphOffset,
)
active_data: bpy.props.IntProperty(
name="Active UV Data",
min=0,
default=0,
)
vertex_group_scale: bpy.props.FloatProperty(
name="Vertex Group Scale",
description='The value scale of "Vertex Group" data type',
precision=3,
step=0.1,
default=1,
)
class GroupMorphOffset(bpy.types.PropertyGroup):
"""Group Morph Offset"""
morph_type: bpy.props.EnumProperty(
name="Morph Type",
description="Select morph type",
items=[
("material_morphs", "Material", "Material Morphs", 0),
("uv_morphs", "UV", "UV Morphs", 1),
("bone_morphs", "Bone", "Bone Morphs", 2),
("vertex_morphs", "Vertex", "Vertex Morphs", 3),
("group_morphs", "Group", "Group Morphs", 4),
],
default="vertex_morphs",
)
factor: bpy.props.FloatProperty(name="Factor", description="Factor", soft_min=0, soft_max=1, precision=3, step=0.1, default=0)
class GroupMorph(_MorphBase, bpy.types.PropertyGroup):
"""Group Morph"""
data: bpy.props.CollectionProperty(
name="Morph Data",
type=GroupMorphOffset,
)
active_data: bpy.props.IntProperty(
name="Active Group Data",
min=0,
default=0,
)
class VertexMorph(_MorphBase, bpy.types.PropertyGroup):
"""Vertex Morph"""
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
from typing import cast
import bpy
from ..core.bone import FnBone
from . import patch_library_overridable
def _mmd_bone_update_additional_transform(prop: "MMDBone", context: bpy.types.Context):
prop["is_additional_transform_dirty"] = True
p_bone = context.active_pose_bone
if p_bone and p_bone.mmd_bone.as_pointer() == prop.as_pointer():
FnBone.apply_additional_transformation(prop.id_data)
def _mmd_bone_update_additional_transform_influence(prop: "MMDBone", context: bpy.types.Context):
pose_bone = context.active_pose_bone
if pose_bone and pose_bone.mmd_bone.as_pointer() == prop.as_pointer():
FnBone.update_additional_transform_influence(pose_bone)
else:
prop["is_additional_transform_dirty"] = True
def _mmd_bone_get_additional_transform_bone(prop: "MMDBone"):
arm = prop.id_data
bone_id = prop.get("additional_transform_bone_id", -1)
if bone_id < 0:
return ""
pose_bone = FnBone.find_pose_bone_by_bone_id(arm, bone_id)
if pose_bone is None:
return ""
return pose_bone.name
def _mmd_bone_set_additional_transform_bone(prop: "MMDBone", value: str):
arm = prop.id_data
prop["is_additional_transform_dirty"] = True
if value not in arm.pose.bones.keys():
prop["additional_transform_bone_id"] = -1
return
pose_bone = arm.pose.bones[value]
prop["additional_transform_bone_id"] = FnBone.get_or_assign_bone_id(pose_bone)
class MMDBone(bpy.types.PropertyGroup):
name_j: bpy.props.StringProperty(
name="Name",
description="Japanese Name",
default="",
)
name_e: bpy.props.StringProperty(
name="Name(Eng)",
description="English Name",
default="",
)
bone_id: bpy.props.IntProperty(
name="Bone ID",
description="Unique ID for the reference of bone morph and rotate+/move+",
default=-1,
min=-1,
)
transform_order: bpy.props.IntProperty(
name="Transform Order",
description="Deformation tier",
min=0,
max=100,
soft_max=7,
)
is_controllable: bpy.props.BoolProperty(
name="Controllable",
description="Is controllable",
default=True,
)
transform_after_dynamics: bpy.props.BoolProperty(
name="After Dynamics",
description="After physics",
default=False,
)
enabled_fixed_axis: bpy.props.BoolProperty(
name="Fixed Axis",
description="Use fixed axis",
default=False,
)
fixed_axis: bpy.props.FloatVectorProperty(
name="Fixed Axis",
description="Fixed axis",
subtype="XYZ",
size=3,
precision=3,
step=0.1, # 0.1 / 100
default=[0, 0, 0],
)
enabled_local_axes: bpy.props.BoolProperty(
name="Local Axes",
description="Use local axes",
default=False,
)
local_axis_x: bpy.props.FloatVectorProperty(
name="Local X-Axis",
description="Local x-axis",
subtype="XYZ",
size=3,
precision=3,
step=0.1,
default=[1, 0, 0],
)
local_axis_z: bpy.props.FloatVectorProperty(
name="Local Z-Axis",
description="Local z-axis",
subtype="XYZ",
size=3,
precision=3,
step=0.1,
default=[0, 0, 1],
)
is_tip: bpy.props.BoolProperty(
name="Tip Bone",
description="Is zero length bone",
default=False,
)
ik_rotation_constraint: bpy.props.FloatProperty(
name="IK Rotation Constraint",
description="The unit angle of IK",
subtype="ANGLE",
soft_min=0,
soft_max=4,
default=1,
)
has_additional_rotation: bpy.props.BoolProperty(
name="Additional Rotation",
description="Additional rotation",
default=False,
update=_mmd_bone_update_additional_transform,
)
has_additional_location: bpy.props.BoolProperty(
name="Additional Location",
description="Additional location",
default=False,
update=_mmd_bone_update_additional_transform,
)
additional_transform_bone: bpy.props.StringProperty(
name="Additional Transform Bone",
description="Additional transform bone",
set=_mmd_bone_set_additional_transform_bone,
get=_mmd_bone_get_additional_transform_bone,
update=_mmd_bone_update_additional_transform,
)
additional_transform_bone_id: bpy.props.IntProperty(
name="Additional Transform Bone ID",
default=-1,
update=_mmd_bone_update_additional_transform,
)
additional_transform_influence: bpy.props.FloatProperty(
name="Additional Transform Influence",
description="Additional transform influence",
default=1,
soft_min=-1,
soft_max=1,
update=_mmd_bone_update_additional_transform_influence,
)
is_additional_transform_dirty: bpy.props.BoolProperty(name="", default=True)
def is_id_unique(self):
return self.bone_id < 0 or not next((b for b in self.id_data.pose.bones if b.mmd_bone != self and b.mmd_bone.bone_id == self.bone_id), None)
@staticmethod
def register():
bpy.types.PoseBone.mmd_bone = patch_library_overridable(bpy.props.PointerProperty(type=MMDBone))
bpy.types.PoseBone.is_mmd_shadow_bone = patch_library_overridable(bpy.props.BoolProperty(name="is_mmd_shadow_bone", default=False))
bpy.types.PoseBone.mmd_shadow_bone_type = patch_library_overridable(bpy.props.StringProperty(name="mmd_shadow_bone_type"))
bpy.types.PoseBone.mmd_ik_toggle = patch_library_overridable(
bpy.props.BoolProperty(
name="MMD IK Toggle",
description="MMD IK toggle is used to import/export animation of IK on-off",
update=_pose_bone_update_mmd_ik_toggle,
default=True,
)
)
@staticmethod
def unregister():
del bpy.types.PoseBone.mmd_ik_toggle
del bpy.types.PoseBone.mmd_shadow_bone_type
del bpy.types.PoseBone.is_mmd_shadow_bone
del bpy.types.PoseBone.mmd_bone
def _pose_bone_update_mmd_ik_toggle(prop: bpy.types.PoseBone, _context):
v = prop.mmd_ik_toggle
armature_object = cast(bpy.types.Object, prop.id_data)
for b in armature_object.pose.bones:
for c in b.constraints:
if c.type == "IK" and c.subtarget == prop.name:
# logging.debug(' %s %s', b.name, c.name)
c.influence = v
b = b if c.use_tail else b.parent
for b in ([b] + b.parent_recursive)[: c.chain_count]:
c = next((c for c in b.constraints if c.type == "LIMIT_ROTATION" and not c.mute), None)
if c:
c.influence = v
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
"""Properties for rigid bodies and joints"""
import bpy
from .. import bpyutils
from ..core import rigid_body
from ..core.rigid_body import RigidBodyMaterial, FnRigidBody
from ..core.model import FnModel
from . import patch_library_overridable
def _updateCollisionGroup(prop, _context):
obj = prop.id_data
materials = obj.data.materials
if len(materials) == 0:
materials.append(RigidBodyMaterial.getMaterial(prop.collision_group_number))
else:
obj.material_slots[0].material = RigidBodyMaterial.getMaterial(prop.collision_group_number)
def _updateType(prop, _context):
obj = prop.id_data
rb = obj.rigid_body
if rb:
rb.kinematic = int(prop.type) == rigid_body.MODE_STATIC
def _updateShape(prop, _context):
obj = prop.id_data
if len(obj.data.vertices) > 0:
size = prop.size
prop.size = size # update mesh
rb = obj.rigid_body
if rb:
rb.collision_shape = prop.shape
def _get_bone(prop):
obj = prop.id_data
relation = obj.constraints.get("mmd_tools_rigid_parent", None)
if relation:
arm = relation.target
bone_name = relation.subtarget
if arm is not None and bone_name in arm.data.bones:
return bone_name
return prop.get("bone", "")
def _set_bone(prop, value):
bone_name = value
obj = prop.id_data
relation = obj.constraints.get("mmd_tools_rigid_parent", None)
if relation is None:
relation = obj.constraints.new("CHILD_OF")
relation.name = "mmd_tools_rigid_parent"
relation.mute = True
arm = relation.target
if arm is None:
root = FnModel.find_root_object(obj)
if root:
arm = relation.target = FnModel.find_armature_object(root)
if arm is not None and bone_name in arm.data.bones:
relation.subtarget = bone_name
else:
relation.subtarget = bone_name = ""
prop["bone"] = bone_name
def _get_size(prop):
if prop.id_data.mmd_type != "RIGID_BODY":
return (0, 0, 0)
return FnRigidBody.get_rigid_body_size(prop.id_data)
def _set_size(prop, value):
obj = prop.id_data
assert obj.mode == "OBJECT" # not support other mode yet
shape = prop.shape
mesh = obj.data
rb = obj.rigid_body
if len(mesh.vertices) == 0 or rb is None or rb.collision_shape != shape:
if shape == "SPHERE":
bpyutils.makeSphere(
radius=value[0],
target_object=obj,
)
elif shape == "BOX":
bpyutils.makeBox(
size=value,
target_object=obj,
)
elif shape == "CAPSULE":
bpyutils.makeCapsule(
radius=value[0],
height=value[1],
target_object=obj,
)
mesh.update()
if rb:
rb.collision_shape = shape
else:
if shape == "SPHERE":
radius = max(value[0], 1e-3)
for v in mesh.vertices:
vec = v.co.normalized()
v.co = vec * radius
elif shape == "BOX":
x = max(value[0], 1e-3)
y = max(value[1], 1e-3)
z = max(value[2], 1e-3)
for v in mesh.vertices:
x0, y0, z0 = v.co
x0 = -x if x0 < 0 else x
y0 = -y if y0 < 0 else y
z0 = -z if z0 < 0 else z
v.co = [x0, y0, z0]
elif shape == "CAPSULE":
r0, h0, xx = FnRigidBody.get_rigid_body_size(prop.id_data)
h0 *= 0.5
radius = max(value[0], 1e-3)
height = max(value[1], 1e-3) * 0.5
scale = radius / max(r0, 1e-3)
for v in mesh.vertices:
x0, y0, z0 = v.co
x0 *= scale
y0 *= scale
if z0 < 0:
z0 = (z0 + h0) * scale - height
else:
z0 = (z0 - h0) * scale + height
v.co = [x0, y0, z0]
mesh.update()
def _get_rigid_name(prop):
return prop.get("name", "")
def _set_rigid_name(prop, value):
prop["name"] = value
class MMDRigidBody(bpy.types.PropertyGroup):
name_j: bpy.props.StringProperty(
name="Name",
description="Japanese Name",
default="",
get=_get_rigid_name,
set=_set_rigid_name,
)
name_e: bpy.props.StringProperty(
name="Name(Eng)",
description="English Name",
default="",
)
collision_group_number: bpy.props.IntProperty(
name="Collision Group",
description="The collision group of the object",
min=0,
max=15,
default=1,
update=_updateCollisionGroup,
)
collision_group_mask: bpy.props.BoolVectorProperty(
name="Collision Group Mask",
description="The groups the object can not collide with",
size=16,
subtype="LAYER",
)
type: bpy.props.EnumProperty(
name="Rigid Type",
description="Select rigid type",
items=[
(str(rigid_body.MODE_STATIC), "Bone", "Rigid body's orientation completely determined by attached bone", 1),
(str(rigid_body.MODE_DYNAMIC), "Physics", "Attached bone's orientation completely determined by rigid body", 2),
(str(rigid_body.MODE_DYNAMIC_BONE), "Physics + Bone", "Bone determined by combination of parent and attached rigid body", 3),
],
update=_updateType,
)
shape: bpy.props.EnumProperty(
name="Shape",
description="Select the collision shape",
items=[
("SPHERE", "Sphere", "", 1),
("BOX", "Box", "", 2),
("CAPSULE", "Capsule", "", 3),
],
update=_updateShape,
)
bone: bpy.props.StringProperty(
name="Bone",
description="Target bone",
default="",
get=_get_bone,
set=_set_bone,
)
size: bpy.props.FloatVectorProperty(
name="Size",
description="Size of the object",
subtype="XYZ",
size=3,
min=0,
step=0.1,
get=_get_size,
set=_set_size,
)
@staticmethod
def register():
bpy.types.Object.mmd_rigid = patch_library_overridable(bpy.props.PointerProperty(type=MMDRigidBody))
@staticmethod
def unregister():
del bpy.types.Object.mmd_rigid
def _updateSpringLinear(prop, context):
obj = prop.id_data
rbc = obj.rigid_body_constraint
if rbc:
rbc.spring_stiffness_x = prop.spring_linear[0]
rbc.spring_stiffness_y = prop.spring_linear[1]
rbc.spring_stiffness_z = prop.spring_linear[2]
def _updateSpringAngular(prop, context):
obj = prop.id_data
rbc = obj.rigid_body_constraint
if rbc and hasattr(rbc, "use_spring_ang_x"):
rbc.spring_stiffness_ang_x = prop.spring_angular[0]
rbc.spring_stiffness_ang_y = prop.spring_angular[1]
rbc.spring_stiffness_ang_z = prop.spring_angular[2]
class MMDJoint(bpy.types.PropertyGroup):
name_j: bpy.props.StringProperty(
name="Name",
description="Japanese Name",
default="",
)
name_e: bpy.props.StringProperty(
name="Name(Eng)",
description="English Name",
default="",
)
spring_linear: bpy.props.FloatVectorProperty(
name="Spring(Linear)",
description="Spring constant of movement",
subtype="XYZ",
size=3,
min=0,
step=0.1,
update=_updateSpringLinear,
)
spring_angular: bpy.props.FloatVectorProperty(
name="Spring(Angular)",
description="Spring constant of rotation",
subtype="XYZ",
size=3,
min=0,
step=0.1,
update=_updateSpringAngular,
)
@staticmethod
def register():
bpy.types.Object.mmd_joint = patch_library_overridable(bpy.props.PointerProperty(type=MMDJoint))
@staticmethod
def unregister():
del bpy.types.Object.mmd_joint
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
"""Properties for MMD model root object"""
import bpy
from .. import utils
from ..bpyutils import FnContext
from ..core.material import FnMaterial
from ..core.model import FnModel
from ..core.sdef import FnSDEF
from . import patch_library_overridable
from .morph import BoneMorph, GroupMorph, MaterialMorph, UVMorph, VertexMorph
from .translations import MMDTranslation
def __driver_variables(constraint: bpy.types.Constraint, path: str, index=-1):
d = constraint.driver_add(path, index)
variables = d.driver.variables
for x in variables:
variables.remove(x)
return d.driver, variables
def __add_single_prop(variables, id_obj, data_path, prefix):
var = variables.new()
var.name = prefix + str(len(variables))
var.type = "SINGLE_PROP"
target = var.targets[0]
target.id_type = "OBJECT"
target.id = id_obj
target.data_path = data_path
return var
def _toggleUsePropertyDriver(self: "MMDRoot", _context):
root_object: bpy.types.Object = self.id_data
armature_object = FnModel.find_armature_object(root_object)
if armature_object is None:
ik_map = {}
else:
bones = armature_object.pose.bones
ik_map = {bones[c.subtarget]: (b, c) for b in bones for c in b.constraints if c.type == "IK" and c.is_valid and c.subtarget in bones}
if self.use_property_driver:
for ik, (b, c) in ik_map.items():
driver, variables = __driver_variables(c, "influence")
driver.expression = "%s" % __add_single_prop(variables, ik.id_data, ik.path_from_id("mmd_ik_toggle"), "use_ik").name
b = b if c.use_tail else b.parent
for b in ([b] + b.parent_recursive)[: c.chain_count]:
c = next((c for c in b.constraints if c.type == "LIMIT_ROTATION" and not c.mute), None)
if c:
driver, variables = __driver_variables(c, "influence")
driver.expression = "%s" % __add_single_prop(variables, ik.id_data, ik.path_from_id("mmd_ik_toggle"), "use_ik").name
for i in FnModel.iterate_mesh_objects(root_object):
for prop_hide in ("hide_viewport", "hide_render"):
driver, variables = __driver_variables(i, prop_hide)
driver.expression = "not %s" % __add_single_prop(variables, root_object, "mmd_root.show_meshes", "show").name
else:
for ik, (b, c) in ik_map.items():
c.driver_remove("influence")
b = b if c.use_tail else b.parent
for b in ([b] + b.parent_recursive)[: c.chain_count]:
c = next((c for c in b.constraints if c.type == "LIMIT_ROTATION" and not c.mute), None)
if c:
c.driver_remove("influence")
for i in FnModel.iterate_mesh_objects(root_object):
for prop_hide in ("hide_viewport", "hide_render"):
i.driver_remove(prop_hide)
# ===========================================
# Callback functions
# ===========================================
def _toggleUseToonTexture(self: "MMDRoot", _context):
use_toon = self.use_toon_texture
for i in FnModel.iterate_mesh_objects(self.id_data):
for m in i.data.materials:
if m:
FnMaterial(m).use_toon_texture(use_toon)
def _toggleUseSphereTexture(self: "MMDRoot", _context):
use_sphere = self.use_sphere_texture
for i in FnModel.iterate_mesh_objects(self.id_data):
for m in i.data.materials:
if m:
FnMaterial(m).use_sphere_texture(use_sphere, i)
def _toggleUseSDEF(self: "MMDRoot", _context):
mute_sdef = not self.use_sdef
for i in FnModel.iterate_mesh_objects(self.id_data):
FnSDEF.mute_sdef_set(i, mute_sdef)
def _toggleVisibilityOfMeshes(self: "MMDRoot", context: bpy.types.Context):
root = self.id_data
hide = not self.show_meshes
for i in FnModel.iterate_mesh_objects(self.id_data):
i.hide_set(hide)
i.hide_render = hide
if hide and context.active_object is None:
FnContext.set_active_object(context, root)
def _toggleVisibilityOfRigidBodies(self: "MMDRoot", context: bpy.types.Context):
root = self.id_data
hide = not self.show_rigid_bodies
for i in FnModel.iterate_rigid_body_objects(root):
i.hide_set(hide)
if hide and context.active_object is None:
FnContext.set_active_object(context, root)
def _toggleVisibilityOfJoints(self: "MMDRoot", context):
root_object = self.id_data
hide = not self.show_joints
for i in FnModel.iterate_joint_objects(root_object):
i.hide_set(hide)
if hide and context.active_object is None:
FnContext.set_active_object(context, root_object)
def _toggleVisibilityOfTemporaryObjects(self: "MMDRoot", context: bpy.types.Context):
root_object: bpy.types.Object = self.id_data
hide = not self.show_temporary_objects
with FnContext.temp_override_active_layer_collection(context, root_object):
for i in FnModel.iterate_temporary_objects(root_object):
i.hide_set(hide)
if hide and context.active_object is None:
FnContext.set_active_object(context, root_object)
def _toggleShowNamesOfRigidBodies(self: "MMDRoot", _context):
root = self.id_data
show_names = root.mmd_root.show_names_of_rigid_bodies
for i in FnModel.iterate_rigid_body_objects(root):
i.show_name = show_names
def _toggleShowNamesOfJoints(self: "MMDRoot", _context):
root = self.id_data
show_names = root.mmd_root.show_names_of_joints
for i in FnModel.iterate_joint_objects(root):
i.show_name = show_names
def _setVisibilityOfMMDRigArmature(prop: "MMDRoot", v: bool):
root = prop.id_data
arm = FnModel.find_armature_object(root)
if arm is None:
return
if not v and bpy.context.active_object == arm:
FnContext.set_active_object(bpy.context, root)
arm.hide_set(not v)
def _getVisibilityOfMMDRigArmature(prop: "MMDRoot"):
if prop.id_data.mmd_type != "ROOT":
return False
arm = FnModel.find_armature_object(prop.id_data)
return arm and not arm.hide_get()
def _setActiveRigidbodyObject(prop: "MMDRoot", v: int):
obj = FnContext.get_scene_objects(bpy.context)[v]
if FnModel.is_rigid_body_object(obj):
FnContext.set_active_and_select_single_object(bpy.context, obj)
prop["active_rigidbody_object_index"] = v
def _getActiveRigidbodyObject(prop: "MMDRoot"):
context = bpy.context
active_obj = FnContext.get_active_object(context)
if FnModel.is_rigid_body_object(active_obj):
prop["active_rigidbody_object_index"] = FnContext.get_scene_objects(context).find(active_obj.name)
return prop.get("active_rigidbody_object_index", 0)
def _setActiveJointObject(prop: "MMDRoot", v: int):
obj = FnContext.get_scene_objects(bpy.context)[v]
if FnModel.is_joint_object(obj):
FnContext.set_active_and_select_single_object(bpy.context, obj)
prop["active_joint_object_index"] = v
def _getActiveJointObject(prop: "MMDRoot"):
context = bpy.context
active_obj = FnContext.get_active_object(context)
if FnModel.is_joint_object(active_obj):
prop["active_joint_object_index"] = FnContext.get_scene_objects(context).find(active_obj.name)
return prop.get("active_joint_object_index", 0)
def _setActiveMorph(prop: "MMDRoot", v: bool):
if "active_morph_indices" not in prop:
prop["active_morph_indices"] = [0] * 5
prop["active_morph_indices"][prop.get("active_morph_type", 3)] = v
def _getActiveMorph(prop: "MMDRoot"):
if "active_morph_indices" in prop:
return prop["active_morph_indices"][prop.get("active_morph_type", 3)]
return 0
def _setActiveMeshObject(prop: "MMDRoot", v: int):
obj = FnContext.get_scene_objects(bpy.context)[v]
if FnModel.is_mesh_object(obj):
FnContext.set_active_and_select_single_object(bpy.context, obj)
prop["active_mesh_index"] = v
def _getActiveMeshObject(prop: "MMDRoot"):
context = bpy.context
active_obj = FnContext.get_active_object(context)
if FnModel.is_mesh_object(active_obj):
prop["active_mesh_index"] = FnContext.get_scene_objects(context).find(active_obj.name)
return prop.get("active_mesh_index", -1)
# ===========================================
# Property classes
# ===========================================
class MMDDisplayItem(bpy.types.PropertyGroup):
"""PMX 表示項目(表示枠内の1項目)"""
type: bpy.props.EnumProperty(
name="Type",
description="Select item type",
items=[
("BONE", "Bone", "", 1),
("MORPH", "Morph", "", 2),
],
)
morph_type: bpy.props.EnumProperty(
name="Morph Type",
description="Select morph type",
items=[
("material_morphs", "Material", "Material Morphs", 0),
("uv_morphs", "UV", "UV Morphs", 1),
("bone_morphs", "Bone", "Bone Morphs", 2),
("vertex_morphs", "Vertex", "Vertex Morphs", 3),
("group_morphs", "Group", "Group Morphs", 4),
],
default="vertex_morphs",
)
class MMDDisplayItemFrame(bpy.types.PropertyGroup):
"""PMX 表示枠
PMXファイル内では表示枠がリストで格納されています
"""
name_e: bpy.props.StringProperty(
name="Name(Eng)",
description="English Name",
default="",
)
# 特殊枠フラグ
# 特殊枠はファイル仕様上の固定枠(削除、リネーム不可)
is_special: bpy.props.BoolProperty(
name="Special",
description="Is special",
default=False,
)
# 表示項目のリスト
data: bpy.props.CollectionProperty(
name="Display Items",
type=MMDDisplayItem,
)
# 現在アクティブな項目のインデックス
active_item: bpy.props.IntProperty(
name="Active Display Item",
min=0,
default=0,
)
class MMDRoot(bpy.types.PropertyGroup):
"""MMDモデルデータ
モデルルート用に作成されたEmtpyオブジェクトで使用します
"""
name: bpy.props.StringProperty(
name="Name",
description="The name of the MMD model",
default="",
)
name_e: bpy.props.StringProperty(
name="Name (English)",
description="The english name of the MMD model",
default="",
)
comment_text: bpy.props.StringProperty(
name="Comment",
description="The text datablock of the comment",
default="",
)
comment_e_text: bpy.props.StringProperty(
name="Comment (English)",
description="The text datablock of the english comment",
default="",
)
ik_loop_factor: bpy.props.IntProperty(
name="MMD IK Loop Factor",
description="Scaling factor of MMD IK loop",
min=1,
soft_max=10,
max=100,
default=1,
)
# TODO: Replace to driver for NLA
show_meshes: bpy.props.BoolProperty(
name="Show Meshes",
description="Show all meshes of the MMD model",
# get=_show_meshes_get,
# set=_show_meshes_set,
update=_toggleVisibilityOfMeshes,
default=True,
)
show_rigid_bodies: bpy.props.BoolProperty(
name="Show Rigid Bodies",
description="Show all rigid bodies of the MMD model",
update=_toggleVisibilityOfRigidBodies,
)
show_joints: bpy.props.BoolProperty(
name="Show Joints",
description="Show all joints of the MMD model",
update=_toggleVisibilityOfJoints,
)
show_temporary_objects: bpy.props.BoolProperty(
name="Show Temps",
description="Show all temporary objects of the MMD model",
update=_toggleVisibilityOfTemporaryObjects,
)
show_armature: bpy.props.BoolProperty(
name="Show Armature",
description="Show the armature object of the MMD model",
get=_getVisibilityOfMMDRigArmature,
set=_setVisibilityOfMMDRigArmature,
)
show_names_of_rigid_bodies: bpy.props.BoolProperty(
name="Show Rigid Body Names",
description="Show rigid body names",
update=_toggleShowNamesOfRigidBodies,
)
show_names_of_joints: bpy.props.BoolProperty(
name="Show Joint Names",
description="Show joint names",
update=_toggleShowNamesOfJoints,
)
use_toon_texture: bpy.props.BoolProperty(
name="Use Toon Texture",
description="Use toon texture",
update=_toggleUseToonTexture,
default=True,
)
use_sphere_texture: bpy.props.BoolProperty(
name="Use Sphere Texture",
description="Use sphere texture",
update=_toggleUseSphereTexture,
default=True,
)
use_sdef: bpy.props.BoolProperty(
name="Use SDEF",
description="Use SDEF",
update=_toggleUseSDEF,
default=True,
)
use_property_driver: bpy.props.BoolProperty(
name="Use Property Driver",
description="Setup drivers for MMD property animation (Visibility and IK toggles)",
update=_toggleUsePropertyDriver,
default=False,
)
is_built: bpy.props.BoolProperty(
name="Is Built",
)
active_rigidbody_index: bpy.props.IntProperty(
name="Active Rigidbody Index",
min=0,
get=_getActiveRigidbodyObject,
set=_setActiveRigidbodyObject,
)
active_joint_index: bpy.props.IntProperty(
name="Active Joint Index",
min=0,
get=_getActiveJointObject,
set=_setActiveJointObject,
)
# *************************
# Display Items
# *************************
display_item_frames: bpy.props.CollectionProperty(
name="Display Frames",
type=MMDDisplayItemFrame,
)
active_display_item_frame: bpy.props.IntProperty(
name="Active Display Item Frame",
min=0,
default=0,
)
# *************************
# Morph
# *************************
material_morphs: bpy.props.CollectionProperty(
name="Material Morphs",
type=MaterialMorph,
)
uv_morphs: bpy.props.CollectionProperty(
name="UV Morphs",
type=UVMorph,
)
bone_morphs: bpy.props.CollectionProperty(
name="Bone Morphs",
type=BoneMorph,
)
vertex_morphs: bpy.props.CollectionProperty(name="Vertex Morphs", type=VertexMorph)
group_morphs: bpy.props.CollectionProperty(
name="Group Morphs",
type=GroupMorph,
)
active_morph_type: bpy.props.EnumProperty(
name="Active Morph Type",
description="Select current morph type",
items=[
("material_morphs", "Material", "Material Morphs", 0),
("uv_morphs", "UV", "UV Morphs", 1),
("bone_morphs", "Bone", "Bone Morphs", 2),
("vertex_morphs", "Vertex", "Vertex Morphs", 3),
("group_morphs", "Group", "Group Morphs", 4),
],
default="vertex_morphs",
)
active_morph: bpy.props.IntProperty(
name="Active Morph",
min=0,
set=_setActiveMorph,
get=_getActiveMorph,
)
morph_panel_show_settings: bpy.props.BoolProperty(
name="Morph Panel Show Settings",
description="Show Morph Settings",
default=True,
)
active_mesh_index: bpy.props.IntProperty(
name="Active Mesh",
min=0,
set=_setActiveMeshObject,
get=_getActiveMeshObject,
)
# *************************
# Translation
# *************************
translation: bpy.props.PointerProperty(
name="Translation",
type=MMDTranslation,
)
@staticmethod
def __get_select(prop: bpy.types.Object) -> bool:
utils.warn_deprecation("Object.select", "v4.0.0", "Use Object.select_get() method instead")
return prop.select_get()
@staticmethod
def __set_select(prop: bpy.types.Object, value: bool) -> None:
utils.warn_deprecation("Object.select", "v4.0.0", "Use Object.select_set() method instead")
prop.select_set(value)
@staticmethod
def __get_hide(prop: bpy.types.Object) -> bool:
utils.warn_deprecation("Object.hide", "v4.0.0", "Use Object.hide_get() method instead")
return prop.hide_get()
@staticmethod
def __set_hide(prop: bpy.types.Object, value: bool) -> None:
utils.warn_deprecation("Object.hide", "v4.0.0", "Use Object.hide_set() method instead")
prop.hide_set(value)
if prop.hide_viewport != value:
prop.hide_viewport = value
@staticmethod
def register():
bpy.types.Object.mmd_type = patch_library_overridable(
bpy.props.EnumProperty(
name="Type",
description="Internal MMD type of this object (DO NOT CHANGE IT DIRECTLY)",
default="NONE",
items=[
("NONE", "None", "", 1),
("ROOT", "Root", "", 2),
("RIGID_GRP_OBJ", "Rigid Body Grp Empty", "", 3),
("JOINT_GRP_OBJ", "Joint Grp Empty", "", 4),
("TEMPORARY_GRP_OBJ", "Temporary Grp Empty", "", 5),
("PLACEHOLDER", "Place Holder", "", 6),
("CAMERA", "Camera", "", 21),
("JOINT", "Joint", "", 22),
("RIGID_BODY", "Rigid body", "", 23),
("LIGHT", "Light", "", 24),
("TRACK_TARGET", "Track Target", "", 51),
("NON_COLLISION_CONSTRAINT", "Non Collision Constraint", "", 52),
("SPRING_CONSTRAINT", "Spring Constraint", "", 53),
("SPRING_GOAL", "Spring Goal", "", 54),
],
)
)
bpy.types.Object.mmd_root = patch_library_overridable(bpy.props.PointerProperty(type=MMDRoot))
bpy.types.Object.select = patch_library_overridable(
bpy.props.BoolProperty(
get=MMDRoot.__get_select,
set=MMDRoot.__set_select,
options={
"SKIP_SAVE",
"ANIMATABLE",
"LIBRARY_EDITABLE",
},
)
)
bpy.types.Object.hide = patch_library_overridable(
bpy.props.BoolProperty(
get=MMDRoot.__get_hide,
set=MMDRoot.__set_hide,
options={
"SKIP_SAVE",
"ANIMATABLE",
"LIBRARY_EDITABLE",
},
)
)
@staticmethod
def unregister():
del bpy.types.Object.hide
del bpy.types.Object.select
del bpy.types.Object.mmd_root
del bpy.types.Object.mmd_type
+127
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
from typing import Dict, List, Optional, Tuple
import bpy
from ..core.translations import FnTranslations, MMDTranslationElementType
from ..translations import DictionaryEnum
MMD_TRANSLATION_ELEMENT_TYPE_ENUM_ITEMS = [
(MMDTranslationElementType.BONE.name, MMDTranslationElementType.BONE.value, "Bones", 1),
(MMDTranslationElementType.MORPH.name, MMDTranslationElementType.MORPH.value, "Morphs", 2),
(MMDTranslationElementType.MATERIAL.name, MMDTranslationElementType.MATERIAL.value, "Materials", 4),
(MMDTranslationElementType.DISPLAY.name, MMDTranslationElementType.DISPLAY.value, "Display frames", 8),
(MMDTranslationElementType.PHYSICS.name, MMDTranslationElementType.PHYSICS.value, "Rigidbodies and joints", 16),
(MMDTranslationElementType.INFO.name, MMDTranslationElementType.INFO.value, "Model name and comments", 32),
]
class MMDTranslationElement(bpy.types.PropertyGroup):
type: bpy.props.EnumProperty(items=MMD_TRANSLATION_ELEMENT_TYPE_ENUM_ITEMS)
object: bpy.props.PointerProperty(type=bpy.types.Object)
data_path: bpy.props.StringProperty()
name: bpy.props.StringProperty()
name_j: bpy.props.StringProperty()
name_e: bpy.props.StringProperty()
class MMDTranslationElementIndex(bpy.types.PropertyGroup):
value: bpy.props.IntProperty()
BATCH_OPERATION_SCRIPT_PRESETS: Dict[str, Tuple[Optional[str], str, str, int]] = {
"NOTHING": ("", "", "", 1),
"CLEAR": (None, "Clear", '""', 10),
"TO_ENGLISH": ("BLENDER", "Translate to English", "to_english(name)", 2),
"TO_MMD_LR": ("JAPANESE", "Blender L/R to MMD L/R", "to_mmd_lr(name)", 3),
"TO_BLENDER_LR": ("BLENDER", "MMD L/R to Blender L/R", "to_blender_lr(name_j)", 4),
"RESTORE_BLENDER": ("BLENDER", "Restore Blender Names", "org_name", 5),
"RESTORE_JAPANESE": ("JAPANESE", "Restore Japanese MMD Names", "org_name_j", 6),
"RESTORE_ENGLISH": ("ENGLISH", "Restore English MMD Names", "org_name_e", 7),
"ENGLISH_IF_EMPTY_JAPANESE": (None, "Copy English MMD Names, if empty copy Japanese MMD Name", "name_e if name_e else name_j", 8),
"JAPANESE_IF_EMPTY_ENGLISH": (None, "Copy Japanese MMD Names, if empty copy English MMD Name", "name_j if name_j else name_e", 9),
}
BATCH_OPERATION_SCRIPT_PRESET_ITEMS: List[Tuple[str, str, str, int]] = [(k, t[1], t[2], t[3]) for k, t in BATCH_OPERATION_SCRIPT_PRESETS.items()]
class MMDTranslation(bpy.types.PropertyGroup):
@staticmethod
def _update_index(mmd_translation: "MMDTranslation", _context):
FnTranslations.update_index(mmd_translation)
@staticmethod
def _collect_data(mmd_translation: "MMDTranslation", _context):
FnTranslations.collect_data(mmd_translation)
@staticmethod
def _update_query(mmd_translation: "MMDTranslation", _context):
FnTranslations.update_query(mmd_translation)
@staticmethod
def _update_batch_operation_script_preset(mmd_translation: "MMDTranslation", _context):
if mmd_translation.batch_operation_script_preset == "NOTHING":
return
id2scripts: Dict[str, str] = {i[0]: i[2] for i in BATCH_OPERATION_SCRIPT_PRESET_ITEMS}
batch_operation_script = id2scripts.get(mmd_translation.batch_operation_script_preset)
if batch_operation_script is None:
return
mmd_translation.batch_operation_script = batch_operation_script
batch_operation_target = BATCH_OPERATION_SCRIPT_PRESETS[mmd_translation.batch_operation_script_preset][0]
if batch_operation_target:
mmd_translation.batch_operation_target = batch_operation_target
translation_elements: bpy.props.CollectionProperty(type=MMDTranslationElement)
filtered_translation_element_indices_active_index: bpy.props.IntProperty(update=_update_index.__func__)
filtered_translation_element_indices: bpy.props.CollectionProperty(type=MMDTranslationElementIndex)
filter_japanese_blank: bpy.props.BoolProperty(name="Japanese Blank", default=False, update=_update_query.__func__)
filter_english_blank: bpy.props.BoolProperty(name="English Blank", default=False, update=_update_query.__func__)
filter_restorable: bpy.props.BoolProperty(name="Restorable", default=False, update=_update_query.__func__)
filter_selected: bpy.props.BoolProperty(name="Selected", default=False, update=_update_query.__func__)
filter_visible: bpy.props.BoolProperty(name="Visible", default=False, update=_update_query.__func__)
filter_types: bpy.props.EnumProperty(
items=MMD_TRANSLATION_ELEMENT_TYPE_ENUM_ITEMS,
default={
"BONE",
"MORPH",
"MATERIAL",
"DISPLAY",
"PHYSICS",
},
options={"ENUM_FLAG"},
update=_update_query.__func__,
)
dictionary: bpy.props.EnumProperty(
items=DictionaryEnum.get_dictionary_items,
name="Dictionary",
)
batch_operation_target: bpy.props.EnumProperty(
items=[
("BLENDER", "Blender Name (name)", "", 1),
("JAPANESE", "Japanese MMD Name (name_j)", "", 2),
("ENGLISH", "English MMD Name (name_e)", "", 3),
],
name="Operation Target",
default="JAPANESE",
)
batch_operation_script_preset: bpy.props.EnumProperty(
items=BATCH_OPERATION_SCRIPT_PRESET_ITEMS,
name="Operation Script Preset",
default="NOTHING",
update=_update_batch_operation_script_preset.__func__,
)
batch_operation_script: bpy.props.StringProperty()
+461
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import csv
import logging
import time
import bpy
from .bpyutils import FnContext
jp_half_to_full_tuples = (
("ヴ", ""),
("ガ", ""),
("ギ", ""),
("グ", ""),
("ゲ", ""),
("ゴ", ""),
("ザ", ""),
("ジ", ""),
("ズ", ""),
("ゼ", ""),
("ゾ", ""),
("ダ", ""),
("ヂ", ""),
("ヅ", ""),
("デ", ""),
("ド", ""),
("バ", ""),
("パ", ""),
("ビ", ""),
("ピ", ""),
("ブ", ""),
("プ", ""),
("ベ", ""),
("ペ", ""),
("ボ", ""),
("ポ", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("ソ", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
("", ""),
)
jp_to_en_tuples = [
("全ての親", "ParentNode"),
("操作中心", "ControlNode"),
("センター", "Center"),
("センター", "Center"),
("グループ", "Group"),
("グルーブ", "Groove"),
("キャンセル", "Cancel"),
("上半身", "UpperBody"),
("下半身", "LowerBody"),
("手首", "Wrist"),
("足首", "Ankle"),
("", "Neck"),
("", "Head"),
("", "Face"),
("下顎", "Chin"),
("下あご", "Chin"),
("あご", "Jaw"),
("", "Jaw"),
("両目", "Eyes"),
("", "Eye"),
("", "Eyebrow"),
("", "Tongue"),
("", "Tears"),
("泣き", "Cry"),
("", "Teeth"),
("照れ", "Blush"),
("青ざめ", "Pale"),
("ガーン", "Gloom"),
("", "Sweat"),
("", "Anger"),
("感情", "Emotion"),
("", "Marks"),
("暗い", "Dark"),
("", "Waist"),
("", "Hair"),
("三つ編み", "Braid"),
("", "Breast"),
("", "Boob"),
("おっぱい", "Tits"),
("", "Muscle"),
("", "Belly"),
("鎖骨", "Clavicle"),
("", "Shoulder"),
("", "Arm"),
("うで", "Arm"),
("ひじ", "Elbow"),
("", "Elbow"),
("", "Hand"),
("親指", "Thumb"),
("人指", "IndexFinger"),
("人差指", "IndexFinger"),
("中指", "MiddleFinger"),
("薬指", "RingFinger"),
("小指", "LittleFinger"),
("", "Leg"),
("ひざ", "Knee"),
("つま", "Toe"),
("", "Sleeve"),
("新規", "New"),
("ボーン", "Bone"),
("", "Twist"),
("回転", "Rotation"),
("", "Axis"),
("ネクタイ", "Necktie"),
("ネクタイ", "Necktie"),
("ヘッドセット", "Headset"),
("飾り", "Accessory"),
("リボン", "Ribbon"),
("", "Collar"),
("", "String"),
("コード", "Cord"),
("イヤリング", "Earring"),
("メガネ", "Eyeglasses"),
("眼鏡", "Glasses"),
("帽子", "Hat"),
("スカート", "Skirt"),
("スカート", "Skirt"),
("パンツ", "Pantsu"),
("シャツ", "Shirt"),
("フリル", "Frill"),
("マフラー", "Muffler"),
("マフラー", "Muffler"),
("", "Clothes"),
("ブーツ", "Boots"),
("ねこみみ", "CatEars"),
("ジップ", "Zip"),
("ジップ", "Zip"),
("ダミー", "Dummy"),
("ダミー", "Dummy"),
("", "Category"),
("あほ毛", "Antenna"),
("アホ毛", "Antenna"),
("モミアゲ", "Sideburn"),
("もみあげ", "Sideburn"),
("ツインテ", "Twintail"),
("おさげ", "Pigtail"),
("ひらひら", "Flutter"),
("調整", "Adjustment"),
("補助", "Aux"),
("", "Right"),
("", "Left"),
("", "Front"),
("後ろ", "Behind"),
("", "Back"),
("", "Side"),
("", "Middle"),
("", "Upper"),
("", "Lower"),
("", "Parent"),
("", "Tip"),
("パーツ", "Part"),
("", "Light"),
("", "Return"),
("", "Wing"),
("", "Base"), # ideally 'Root' but to avoid confusion
("", "Strand"),
("", "Tail"),
("", "Butt"),
# full-width unicode forms I think: https://en.wikipedia.org/wiki/Halfwidth_and_fullwidth_forms
("", "0"),
("", "1"),
("", "2"),
("", "3"),
("", "4"),
("", "5"),
("", "6"),
("", "7"),
("", "8"),
("", "9"),
("", "a"),
("", "b"),
("", "c"),
("", "d"),
("", "e"),
("", "f"),
("", "g"),
("", "h"),
("", "i"),
("", "j"),
("", "k"),
("", "l"),
("", "m"),
("", "n"),
("", "o"),
("", "p"),
("", "q"),
("", "r"),
("", "s"),
("", "t"),
("", "u"),
("", "v"),
("", "w"),
("", "x"),
("", "y"),
("", "z"),
("", "A"),
("", "B"),
("", "C"),
("", "D"),
("", "E"),
("", "F"),
("", "G"),
("", "H"),
("", "I"),
("", "J"),
("", "K"),
("", "L"),
("", "M"),
("", "N"),
("", "O"),
("", "P"),
("", "Q"),
("", "R"),
("", "S"),
("", "T"),
("", "U"),
("", "V"),
("", "W"),
("", "X"),
("", "Y"),
("", "Z"),
("", "+"),
("", "-"),
("_", "_"),
("", "/"),
(".", "_"), # probably should be combined with the global 'use underscore' option
]
def translateFromJp(name):
for tuple in jp_to_en_tuples:
if tuple[0] in name:
name = name.replace(tuple[0], tuple[1])
return name
def getTranslator(csvfile="", keep_order=False):
translator = MMDTranslator()
if isinstance(csvfile, bpy.types.Text):
translator.load_from_stream(csvfile)
elif isinstance(csvfile, dict):
translator.csv_tuples.extend(csvfile.items())
elif csvfile in bpy.data.texts.keys():
translator.load_from_stream(bpy.data.texts[csvfile])
else:
translator.load(csvfile)
if not keep_order:
translator.sort()
translator.update()
return translator
class MMDTranslator:
def __init__(self):
self.__csv_tuples = []
self.__fails = {}
@staticmethod
def default_csv_filepath():
return __file__[:-3] + ".csv"
@staticmethod
def get_csv_text(text_name=None):
text_name = text_name or bpy.path.basename(MMDTranslator.default_csv_filepath())
csv_text = bpy.data.texts.get(text_name, None)
if csv_text is None:
csv_text = bpy.data.texts.new(text_name)
return csv_text
@staticmethod
def replace_from_tuples(name, tuples):
for pair in tuples:
if pair[0] in name:
name = name.replace(pair[0], pair[1])
return name
@property
def csv_tuples(self):
return self.__csv_tuples
@property
def fails(self):
return self.__fails
def sort(self):
self.__csv_tuples.sort(key=lambda row: (-len(row[0]), row))
def update(self):
from collections import OrderedDict
count_old = len(self.__csv_tuples)
tuples_dict = OrderedDict((row[0], row) for row in self.__csv_tuples if len(row) >= 2 and row[0])
self.__csv_tuples.clear()
self.__csv_tuples.extend(tuples_dict.values())
logging.info(" - removed items:\t%d\t(of %d)", count_old - len(self.__csv_tuples), count_old)
def half_to_full(self, name):
return self.replace_from_tuples(name, jp_half_to_full_tuples)
def is_translated(self, name):
try:
name.encode("ascii", errors="strict")
except UnicodeEncodeError:
return False
return True
def translate(self, name, default=None, from_full_width=True):
if from_full_width:
name = self.half_to_full(name)
name_new = self.replace_from_tuples(name, self.__csv_tuples)
if default is not None and not self.is_translated(name_new):
self.__fails[name] = name_new
return default
return name_new
def save_fails(self, text_name=None):
text_name = text_name or (__name__ + ".fails")
txt = self.get_csv_text(text_name)
fmt = '"%s","%s"'
items = sorted(self.__fails.items(), key=lambda row: (-len(row[0]), row))
txt.from_string("\n".join(fmt % (k, v) for k, v in items))
return txt
def load_from_stream(self, csvfile=None):
csvfile = csvfile or self.get_csv_text()
if isinstance(csvfile, bpy.types.Text):
csvfile = (l.body + "\n" for l in csvfile.lines)
spamreader = csv.reader(csvfile, delimiter=",", skipinitialspace=True)
csv_tuples = [tuple(row) for row in spamreader if len(row) >= 2]
self.__csv_tuples = csv_tuples
logging.info(" - load items:\t%d", len(self.__csv_tuples))
def save_to_stream(self, csvfile=None):
csvfile = csvfile or self.get_csv_text()
lineterminator = "\r\n"
if isinstance(csvfile, bpy.types.Text):
csvfile.clear()
lineterminator = "\n"
spamwriter = csv.writer(csvfile, delimiter=",", lineterminator=lineterminator, quoting=csv.QUOTE_ALL)
spamwriter.writerows(self.__csv_tuples)
logging.info(" - save items:\t%d", len(self.__csv_tuples))
def load(self, filepath=None):
filepath = filepath or self.default_csv_filepath()
logging.info("Loading csv file:\t%s", filepath)
with open(filepath, "rt", encoding="utf-8", newline="") as csvfile:
self.load_from_stream(csvfile)
def save(self, filepath=None):
filepath = filepath or self.default_csv_filepath()
logging.info("Saving csv file:\t%s", filepath)
with open(filepath, "wt", encoding="utf-8", newline="") as csvfile:
self.save_to_stream(csvfile)
class DictionaryEnum:
__items_ttl = 0.0
__items_cache = None
@staticmethod
def get_dictionary_items(prop, context):
if DictionaryEnum.__items_ttl > time.time():
return DictionaryEnum.__items_cache
DictionaryEnum.__items_ttl = time.time() + 5
DictionaryEnum.__items_cache = items = []
if "import" in prop.bl_rna.identifier:
items.append(("DISABLED", "Disabled", "", 0))
items.append(("INTERNAL", "Internal Dictionary", "The dictionary defined in " + __name__, len(items)))
for txt_name in sorted(x.name for x in bpy.data.texts if x.name.lower().endswith(".csv")):
items.append((txt_name, txt_name, "bpy.data.texts['%s']" % txt_name, "TEXT", len(items)))
import os
folder = FnContext.get_addon_preferences_attribute(context, "dictionary_folder", "")
if os.path.isdir(folder):
for filename in sorted(x for x in os.listdir(folder) if x.lower().endswith(".csv")):
filepath = os.path.join(folder, filename)
if os.path.isfile(filepath):
items.append((filepath, filename, filepath, "FILE", len(items)))
if "dictionary" in prop:
prop["dictionary"] = min(prop["dictionary"], len(items) - 1)
return items
@staticmethod
def get_translator(dictionary):
if dictionary == "DISABLED":
return None
if dictionary == "INTERNAL":
return getTranslator(dict(jp_to_en_tuples))
return getTranslator(dictionary)
+334
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# -*- coding: utf-8 -*-
# Copyright 2014 MMD Tools authors
# This file was originally part of the MMD Tools add-on for Blender
# You can find MMD Tools here: https://github.com/MMD-Blender/blender_mmd_tools
# Neoneko has modified this file to work with Avatar Toolkit and may of made changes or improvements.
# MMD Tools is licensed under the terms of the GNU General Public License version 3 (GPLv3) same as Avatar Toolkit.
import logging
import os
import re
from typing import Callable, Optional, Set
import bpy
from .bpyutils import FnContext
## 指定したオブジェクトのみを選択状態かつアクティブにする
def selectAObject(obj):
try:
bpy.ops.object.mode_set(mode="OBJECT")
except Exception:
pass
bpy.ops.object.select_all(action="DESELECT")
FnContext.select_object(FnContext.ensure_context(), obj)
FnContext.set_active_object(FnContext.ensure_context(), obj)
## 現在のモードを指定したオブジェクトのEdit Modeに変更する
def enterEditMode(obj):
selectAObject(obj)
if obj.mode != "EDIT":
bpy.ops.object.mode_set(mode="EDIT")
def setParentToBone(obj, parent, bone_name):
selectAObject(obj)
FnContext.set_active_object(FnContext.ensure_context(), parent)
bpy.ops.object.mode_set(mode="POSE")
parent.data.bones.active = parent.data.bones[bone_name]
bpy.ops.object.parent_set(type="BONE", xmirror=False, keep_transform=False)
bpy.ops.object.mode_set(mode="OBJECT")
def selectSingleBone(context, armature, bone_name, reset_pose=False):
try:
bpy.ops.object.mode_set(mode="OBJECT")
except:
pass
for i in context.selected_objects:
i.select_set(False)
FnContext.set_active_object(context, armature)
bpy.ops.object.mode_set(mode="POSE")
if reset_pose:
for p_bone in armature.pose.bones:
p_bone.matrix_basis.identity()
armature_bones: bpy.types.ArmatureBones = armature.data.bones
i: bpy.types.Bone
for i in armature_bones:
i.select = i.name == bone_name
i.select_head = i.select_tail = i.select
if i.select:
armature_bones.active = i
i.hide = False
__CONVERT_NAME_TO_L_REGEXP = re.compile("^(.*)左(.*)$")
__CONVERT_NAME_TO_R_REGEXP = re.compile("^(.*)右(.*)$")
## 日本語で左右を命名されている名前をblender方式のL(R)に変更する
def convertNameToLR(name, use_underscore=False):
m = __CONVERT_NAME_TO_L_REGEXP.match(name)
delimiter = "_" if use_underscore else "."
if m:
name = m.group(1) + m.group(2) + delimiter + "L"
m = __CONVERT_NAME_TO_R_REGEXP.match(name)
if m:
name = m.group(1) + m.group(2) + delimiter + "R"
return name
__CONVERT_L_TO_NAME_REGEXP = re.compile(r"(?P<lr>(?P<separator>[._])[lL])(?P<after>($|(?P=separator)))")
__CONVERT_R_TO_NAME_REGEXP = re.compile(r"(?P<lr>(?P<separator>[._])[rR])(?P<after>($|(?P=separator)))")
def convertLRToName(name):
match = __CONVERT_L_TO_NAME_REGEXP.search(name)
if match:
return f"{name[0:match.start()]}{match['after']}{name[match.end():]}"
match = __CONVERT_R_TO_NAME_REGEXP.search(name)
if match:
return f"{name[0:match.start()]}{match['after']}{name[match.end():]}"
return name
## src_vertex_groupのWeightをdest_vertex_groupにaddする
def mergeVertexGroup(meshObj, src_vertex_group_name, dest_vertex_group_name):
mesh = meshObj.data
src_vertex_group = meshObj.vertex_groups[src_vertex_group_name]
dest_vertex_group = meshObj.vertex_groups[dest_vertex_group_name]
vtxIndex = src_vertex_group.index
for v in mesh.vertices:
try:
gi = [i.group for i in v.groups].index(vtxIndex)
dest_vertex_group.add([v.index], v.groups[gi].weight, "ADD")
except ValueError:
pass
def separateByMaterials(meshObj: bpy.types.Object):
if len(meshObj.data.materials) < 2:
selectAObject(meshObj)
return
matrix_parent_inverse = meshObj.matrix_parent_inverse.copy()
prev_parent = meshObj.parent
dummy_parent = bpy.data.objects.new(name="tmp", object_data=None)
meshObj.parent = dummy_parent
meshObj.active_shape_key_index = 0
try:
enterEditMode(meshObj)
bpy.ops.mesh.select_all(action="SELECT")
bpy.ops.mesh.separate(type="MATERIAL")
finally:
bpy.ops.object.mode_set(mode="OBJECT")
for i in dummy_parent.children:
materials = i.data.materials
i.name = getattr(materials[0], "name", "None") if len(materials) else "None"
i.parent = prev_parent
i.matrix_parent_inverse = matrix_parent_inverse
bpy.data.objects.remove(dummy_parent)
def clearUnusedMeshes():
meshes_to_delete = []
for mesh in bpy.data.meshes:
if mesh.users == 0:
meshes_to_delete.append(mesh)
for mesh in meshes_to_delete:
bpy.data.meshes.remove(mesh)
## Boneのカスタムプロパティにname_jが存在する場合、name_jの値を
# それ以外の場合は通常のbone名をキーとしたpose_boneへの辞書を作成
def makePmxBoneMap(armObj):
# Maintain backward compatibility with mmd_tools v0.4.x or older.
return {(i.mmd_bone.name_j or i.get("mmd_bone_name_j", i.get("name_j", i.name))): i for i in armObj.pose.bones}
__REMOVE_PREFIX_DIGITS_REGEXP = re.compile(r"\.\d{1,}$")
def unique_name(name: str, used_names: Set[str]) -> str:
"""Helper function for storing unique names.
This function is a limited and simplified version of bpy_extras.io_utils.unique_name.
Args:
name (str): The name to make unique.
used_names (Set[str]): A set of names that are already used.
Returns:
str: The unique name, formatted as "{name}.{number:03d}".
"""
if name not in used_names:
return name
count = 1
new_name = orig_name = __REMOVE_PREFIX_DIGITS_REGEXP.sub("", name)
while new_name in used_names:
new_name = f"{orig_name}.{count:03d}"
count += 1
return new_name
def int2base(x, base, width=0):
"""
Method to convert an int to a base
Source: http://stackoverflow.com/questions/2267362
"""
import string
digs = string.digits + string.ascii_uppercase
assert 2 <= base <= len(digs)
digits, negtive = "", False
if x <= 0:
if x == 0:
return "0" * max(1, width)
x, negtive, width = -x, True, width - 1
while x:
digits = digs[x % base] + digits
x //= base
digits = "0" * (width - len(digits)) + digits
if negtive:
digits = "-" + digits
return digits
def saferelpath(path, start, strategy="inside"):
"""
On Windows relpath will raise a ValueError
when trying to calculate the relative path to a
different drive.
This method will behave different depending on the strategy
choosen to handle the different drive issue.
Strategies:
- inside: this will just return the basename of the path given
- outside: this will prepend '..' to the basename
- absolute: this will return the absolute path instead of a relative.
See http://bugs.python.org/issue7195
"""
if strategy == "inside":
return os.path.basename(path)
if strategy == "absolute":
return os.path.abspath(path)
if strategy == "outside" and os.name == "nt":
d1, _ = os.path.splitdrive(path)
d2, _ = os.path.splitdrive(start)
if d1 != d2:
return ".." + os.sep + os.path.basename(path)
return os.path.relpath(path, start)
class ItemOp:
@staticmethod
def get_by_index(items, index):
if 0 <= index < len(items):
return items[index]
return None
@staticmethod
def resize(items: bpy.types.bpy_prop_collection, length: int):
count = length - len(items)
if count > 0:
for i in range(count):
items.add()
elif count < 0:
for i in range(-count):
items.remove(length)
@staticmethod
def add_after(items, index):
index_end = len(items)
index = max(0, min(index_end, index + 1))
items.add()
items.move(index_end, index)
return items[index], index
class ItemMoveOp:
type: bpy.props.EnumProperty(
name="Type",
description="Move type",
items=[
("UP", "Up", "", 0),
("DOWN", "Down", "", 1),
("TOP", "Top", "", 2),
("BOTTOM", "Bottom", "", 3),
],
default="UP",
)
@staticmethod
def move(items, index, move_type, index_min=0, index_max=None):
if index_max is None:
index_max = len(items) - 1
else:
index_max = min(index_max, len(items) - 1)
index_min = min(index_min, index_max)
if index < index_min:
items.move(index, index_min)
return index_min
elif index > index_max:
items.move(index, index_max)
return index_max
index_new = index
if move_type == "UP":
index_new = max(index_min, index - 1)
elif move_type == "DOWN":
index_new = min(index + 1, index_max)
elif move_type == "TOP":
index_new = index_min
elif move_type == "BOTTOM":
index_new = index_max
if index_new != index:
items.move(index, index_new)
return index_new
def deprecated(deprecated_in: Optional[str] = None, details: Optional[str] = None):
"""Decorator to mark a function as deprecated.
Args:
deprecated_in (Optional[str]): Version in which the function was deprecated.
details (Optional[str]): Additional details about the deprecation.
Returns:
Callable: The decorated function.
"""
def _function_wrapper(function: Callable):
def _inner_wrapper(*args, **kwargs):
warn_deprecation(function.__name__, deprecated_in, details)
return function(*args, **kwargs)
return _inner_wrapper
return _function_wrapper
def warn_deprecation(function_name: str, deprecated_in: Optional[str] = None, details: Optional[str] = None) -> None:
"""Reports a deprecation warning.
Args:
function_name (str): Name of the deprecated function.
deprecated_in (Optional[str]): Version in which the function was deprecated.
details (Optional[str]): Additional details about the deprecation.
"""
logging.warning(
"%s is deprecated%s%s",
function_name,
f" since {deprecated_in}" if deprecated_in else "",
f": {details}" if details else "",
stack_info=True,
stacklevel=4,
)
# import warnings # pylint: disable=import-outside-toplevel
# warnings.warn(f"""{function_name}is deprecated{f" since {deprecated_in}" if deprecated_in else ""}{f": {details}" if details else ""}""", category=DeprecationWarning, stacklevel=2)