Hoikas
/
korman
mirror of https://github.com/H-uru/korman.git
2
1
Fork 0
Code Releases Activity
Browse Source

Refactor keyframe handling for material diffuse anims. 

The old code was objectively terrible and placed the burden of handling
missing values effectively on the user instead of just figuring it out.
This is objectively better in that we can now count on all values being
"known" at keyframe convert time. Whether that "known" is because it's a
real keyframe, we evaluated it, or we pulled it out of our @$$ is
another story, of course.
pull/236/head
Adam Johnson 3 years ago
parent
6c278167db
commit
ef58917536
Signed by: Hoikas
GPG Key ID: 0B6515D6FF6F271E
1 changed files with 241 additions and 326 deletions
Whitespace
Show all changes Ignore whitespace when comparing lines Ignore changes in amount of whitespace Ignore changes in whitespace at EOL
Split View
Diff Options
Show Stats Download Patch File Download Diff File
  1. 567
      korman/exporter/animation.py

567
korman/exporter/animation.py
Unescape View File

@ -14,10 +14,13 @@
# along with Korman. If not, see <http://www.gnu.org/licenses/>.
import bpy
from collections import defaultdict
import functools
import itertools
import math
import mathutils
from PyHSPlasma import *
from typing import *
import weakref
from . import utils
@ -27,10 +30,10 @@ class AnimationConverter:
self._exporter = weakref.ref(exporter)
self._bl_fps = bpy.context.scene.render.fps
def _convert_frame_time(self, frame_num):
def _convert_frame_time(self, frame_num : int) -> float:
return frame_num / self._bl_fps
def convert_object_animations(self, bo, so):
def convert_object_animations(self, bo, so) -> None:
if not bo.plasma_object.has_animation_data:
return
@ -191,7 +194,7 @@ class AnimationConverter:
return None
energy_curve = next((i for i in fcurves if i.data_path == "energy" and i.keyframe_points), None)
color_curves = sorted((i for i in fcurves if i.data_path == "color" and i.keyframe_points), key=lambda x: x.array_index)
color_curves = [i for i in fcurves if i.data_path == "color" and i.keyframe_points]
if energy_curve is None and color_curves is None:
return None
elif lamp.use_only_shadow:
@ -202,10 +205,15 @@ class AnimationConverter:
return None
# OK Specular is easy. We just toss out the color as a point3.
color_keyframes, color_bez = self._process_keyframes(color_curves, convert=lambda x: x * -1.0 if lamp.use_negative else None)
def convert_specular_animation(color):
if lamp.use_negative:
return map(lambda x: x * -1.0, color)
else:
return color
color_keyframes, color_bez = self._process_keyframes(color_curves, 3, lamp.color, convert_specular_animation)
if color_keyframes and lamp.use_specular:
channel = plPointControllerChannel()
channel.controller = self._make_point3_controller(color_curves, color_keyframes, color_bez, lamp.color)
channel.controller = self._make_point3_controller(color_keyframes, color_bez)
applicator = plLightSpecularApplicator()
applicator.channelName = name
applicator.channel = channel
@ -214,18 +222,20 @@ class AnimationConverter:
# Hey, look, it's a third way to process FCurves. YAY!
def convert_diffuse_animation(color, energy):
if lamp.use_negative:
return { key: (0.0 - value) * energy[0] for key, value in color.items() }
proc = lambda x: x * -1.0 * energy[0]
else:
return { key: value * energy[0] for key, value in color.items() }
diffuse_defaults = { "color": lamp.color, "energy": lamp.energy }
proc = lambda x: x * energy[0]
return map(proc, color)
diffuse_channels = dict(color=3, energy=1)
diffuse_defaults = dict(color=lamp.color, energy=lamp.energy)
diffuse_fcurves = color_curves + [energy_curve,]
diffuse_keyframes = self._process_fcurves(diffuse_fcurves, convert_diffuse_animation, diffuse_defaults)
diffuse_keyframes = self._process_fcurves(diffuse_fcurves, diffuse_channels, 3, convert_diffuse_animation, diffuse_defaults)
if not diffuse_keyframes:
return None
# Whew.
channel = plPointControllerChannel()
channel.controller = self._make_point3_controller([], diffuse_keyframes, False, [])
channel.controller = self._make_point3_controller(diffuse_keyframes, False)
applicator = plLightDiffuseApplicator()
applicator.channelName = name
applicator.channel = channel
@ -239,8 +249,16 @@ class AnimationConverter:
distance_fcurve = next((i for i in fcurves if i.data_path == "distance"), None)
if energy_fcurve is None and distance_fcurve is None:
return None
light_converter = self._exporter().light
intensity, atten_end = light_converter.convert_attenuation(lamp)
light_converter, report = self._exporter().light, self._exporter().report
omni_fcurves = [distance_fcurve, energy_fcurve]
omni_channels = dict(distance=1, energy=1)
omni_defaults = dict(distance=lamp.distance, energy=lamp.energy)
def convert_omni_atten(distance, energy):
intens = abs(energy[0])
atten_end = distance[0] if lamp.use_sphere else distance[0] * 2
return light_converter.convert_attenuation_linear(intens, atten_end)
# All types allow animating cutoff
if distance_fcurve is not None:
@ -255,15 +273,9 @@ class AnimationConverter:
falloff = lamp.falloff_type
if falloff == "CONSTANT":
if energy_fcurve is not None:
self._exporter().report.warn("Constant attenuation cannot be animated in Plasma", ident=3)
report.warn("Constant attenuation cannot be animated in Plasma", ident=3)
elif falloff == "INVERSE_LINEAR":
def convert_linear_atten(distance, energy):
intens = abs(energy[0])
atten_end = distance[0] if lamp.use_sphere else distance[0] * 2
return light_converter.convert_attenuation_linear(intens, atten_end)
keyframes = self._process_fcurves([distance_fcurve, energy_fcurve], convert_linear_atten,
{"distance": lamp.distance, "energy": lamp.energy})
keyframes = self._process_fcurves(omni_fcurves, omni_channels, 1, convert_omni_atten, omni_defaults)
if keyframes:
channel = plScalarControllerChannel()
channel.controller = self._make_scalar_leaf_controller(keyframes, False)
@ -273,13 +285,8 @@ class AnimationConverter:
yield applicator
elif falloff == "INVERSE_SQUARE":
if self._mgr.getVer() >= pvMoul:
def convert_quadratic_atten(distance, energy):
intens = abs(energy[0])
atten_end = distance[0] if lamp.use_sphere else distance[0] * 2
return light_converter.convert_attenuation_quadratic(intens, atten_end)
keyframes = self._process_fcurves([distance_fcurve, energy_fcurve], convert_quadratic_atten,
{"distance": lamp.distance, "energy": lamp.energy})
report.port("Lamp {} Falloff animations are only supported in Myst Online: Uru Live", falloff, indent=3)
keyframes = self._process_fcurves(omni_fcurves, omni_channels, 1, convert_omni_atten, omni_defaults)
if keyframes:
channel = plScalarControllerChannel()
channel.controller = self._make_scalar_leaf_controller(keyframes, False)
@ -288,9 +295,9 @@ class AnimationConverter:
applicator.channel = channel
yield applicator
else:
self._exporter().report.port("Lamp Falloff '{}' animations only partially supported for this version of Plasma", falloff, indent=3)
report.warn("Lamp {} Falloff animations are not supported for this version of Plasma", falloff, indent=3)
else:
self._exporter().report.warn("Lamp Falloff '{}' animations are not supported".format(falloff), ident=3)
report.warn("Lamp Falloff '{}' animations are not supported", falloff, ident=3)
def _convert_sound_volume_animation(self, name, fcurves, soundemit):
if not fcurves:
@ -340,8 +347,11 @@ class AnimationConverter:
size = spot_size[0]
value = size - (blend * size)
return math.degrees(value)
defaults = { "spot_blend": lamp.spot_blend, "spot_size": lamp.spot_size }
keyframes = self._process_fcurves([blend_fcurve, size_fcurve], convert_spot_inner, defaults)
inner_fcurves = [blend_fcurve, size_fcurve]
inner_channels = dict(spot_blend=1, spot_size=1)
inner_defaults = dict(spot_blend=lamp.spot_blend, spot_size=lamp.spot_size)
keyframes = self._process_fcurves(inner_fcurves, inner_channels, 1, convert_spot_inner, inner_defaults)
if keyframes:
channel = plScalarControllerChannel()
@ -351,7 +361,7 @@ class AnimationConverter:
applicator.channel = channel
yield applicator
def _convert_transform_animation(self, name, fcurves, xform, allow_empty=False):
def _convert_transform_animation(self, name, fcurves, xform, allow_empty=False) -> Union[None, plMatrixChannelApplicator]:
tm = self.convert_transform_controller(fcurves, xform, allow_empty)
if tm is None and not allow_empty:
return None
@ -366,13 +376,14 @@ class AnimationConverter:
return applicator
def convert_transform_controller(self, fcurves, xform, allow_empty=False):
def convert_transform_controller(self, fcurves, xform, allow_empty=False) -> Union[None, plCompoundController]:
if not fcurves and not allow_empty:
return None
pos = self.make_pos_controller(fcurves, xform)
rot = self.make_rot_controller(fcurves, xform)
scale = self.make_scale_controller(fcurves, xform)
pos = self.make_pos_controller(fcurves, "location", xform.to_translation())
# TODO: support rotation_quaternion
rot = self.make_rot_controller(fcurves, "rotation_euler", xform.to_euler())
scale = self.make_scale_controller(fcurves, "scale", xform.to_scale())
if pos is None and rot is None and scale is None:
if not allow_empty:
return None
@ -383,17 +394,17 @@ class AnimationConverter:
tm.Z = scale
return tm
def get_anigraph_keys(self, bo=None, so=None):
def get_anigraph_keys(self, bo=None, so=None) -> Tuple[plKey, plKey]:
mod = self._mgr.find_create_key(plAGModifier, so=so, bl=bo)
master = self._mgr.find_create_key(plAGMasterMod, so=so, bl=bo)
return mod, master
def get_anigraph_objects(self, bo=None, so=None):
def get_anigraph_objects(self, bo=None, so=None) -> Tuple[plAGModifier, plAGMasterMod]:
mod = self._mgr.find_create_object(plAGModifier, so=so, bl=bo)
master = self._mgr.find_create_object(plAGMasterMod, so=so, bl=bo)
return mod, master
def get_animation_key(self, bo, so=None):
def get_animation_key(self, bo, so=None) -> plKey:
# we might be controlling more than one animation. isn't that cute?
# https://www.youtube.com/watch?v=hspNaoxzNbs
# (but obviously this is not wrong...)
@ -403,72 +414,65 @@ class AnimationConverter:
else:
return self.get_anigraph_keys(bo, so)[1]
def make_matrix44_controller(self, fcurves, pos_path, scale_path, pos_default, scale_default):
def convert_matrix_keyframe(**kwargs):
pos = kwargs.get(pos_path)
scale = kwargs.get(scale_path)
# Since only some position curves may be supplied, construct dict with all positions
allpos = dict(enumerate(pos_default))
allscale = dict(enumerate(scale_default))
allpos.update(pos)
allscale.update(scale)
def make_matrix44_controller(self, fcurves, pos_path : str, scale_path : str, pos_default, scale_default) -> Union[None, plLeafController]:
def convert_matrix_keyframe(**kwargs) -> hsMatrix44:
pos = kwargs[pos_path]
scale = kwargs[scale_path]
matrix = hsMatrix44()
# Note: scale and pos are dicts, so we can't unpack
matrix.setTranslate(hsVector3(allpos[0], allpos[1], allpos[2]))
matrix.setScale(hsVector3(allscale[0], allscale[1], allscale[2]))
matrix.setTranslate(hsVector3(*pos))
matrix.setScale(hsVector3(*scale))
return matrix
fcurves = [i for i in fcurves if i.data_path == pos_path or i.data_path == scale_path]
if not fcurves:
return None
channels = { pos_path: 3, scale_path: 3 }
default_values = { pos_path: pos_default, scale_path: scale_default }
keyframes = self._process_fcurves(fcurves, convert_matrix_keyframe, default_values)
keyframes = self._process_fcurves(fcurves, channels, 1, convert_matrix_keyframe, default_values)
if not keyframes:
return None
# Now we make the controller
return self._make_matrix44_controller(keyframes)
def make_pos_controller(self, fcurves, default_xform, convert=None):
pos_curves = [i for i in fcurves if i.data_path == "location" and i.keyframe_points]
keyframes, bez_chans = self._process_keyframes(pos_curves, convert)
def make_pos_controller(self, fcurves, data_path : str, default_xform, convert=None) -> Union[None, plLeafController]:
pos_curves = [i for i in fcurves if i.data_path == data_path and i.keyframe_points]
keyframes, bez_chans = self._process_keyframes(pos_curves, 3, default_xform, convert)
if not keyframes:
return None
# At one point, I had some... insanity here to try to crush bezier channels and hand off to
# blah blah blah... As it turns out, point3 keyframe's tangents are vector3s :)
ctrl = self._make_point3_controller(pos_curves, keyframes, bez_chans, default_xform.to_translation())
ctrl = self._make_point3_controller(keyframes, bez_chans)
return ctrl
def make_rot_controller(self, fcurves, default_xform, convert=None):
# TODO: support rotation_quaternion
rot_curves = [i for i in fcurves if i.data_path == "rotation_euler" and i.keyframe_points]
keyframes, bez_chans = self._process_keyframes(rot_curves, convert=None)
def make_rot_controller(self, fcurves, data_path : str, default_xform, convert=None) -> Union[None, plCompoundController, plLeafController]:
rot_curves = [i for i in fcurves if i.data_path == data_path and i.keyframe_points]
keyframes, bez_chans = self._process_keyframes(rot_curves, 3, default_xform, convert=None)
if not keyframes:
return None
# Ugh. Unfortunately, it appears Blender's default interpolation is bezier. So who knows if
# many users will actually see the benefit here? Makes me sad.
if bez_chans:
ctrl = self._make_scalar_compound_controller(rot_curves, keyframes, bez_chans, default_xform.to_euler())
ctrl = self._make_scalar_compound_controller(keyframes, bez_chans)
else:
ctrl = self._make_quat_controller(rot_curves, keyframes, default_xform.to_euler())
ctrl = self._make_quat_controller( keyframes)
return ctrl
def make_scale_controller(self, fcurves, default_xform, convert=None):
scale_curves = [i for i in fcurves if i.data_path == "scale" and i.keyframe_points]
keyframes, bez_chans = self._process_keyframes(scale_curves, convert)
def make_scale_controller(self, fcurves, data_path : str, default_xform, convert=None) -> plLeafController:
scale_curves = [i for i in fcurves if i.data_path == data_path and i.keyframe_points]
keyframes, bez_chans = self._process_keyframes(scale_curves, 3, default_xform, convert)
if not keyframes:
return None
# There is no such thing as a compound scale controller... in Plasma, anyway.
ctrl = self._make_scale_value_controller(scale_curves, keyframes, bez_chans, default_xform)
ctrl = self._make_scale_value_controller(keyframes, bez_chans)
return ctrl
def make_scalar_leaf_controller(self, fcurve, convert=None):
def make_scalar_leaf_controller(self, fcurve, convert=None) -> Union[None, plLeafController]:
keyframes, bezier = self._process_fcurve(fcurve, convert)
if not keyframes:
return None
@ -476,7 +480,7 @@ class AnimationConverter:
ctrl = self._make_scalar_leaf_controller(keyframes, bezier)
return ctrl
def _make_matrix44_controller(self, keyframes):
def _make_matrix44_controller(self, keyframes) -> plLeafController:
ctrl = plLeafController()
keyframe_type = hsKeyFrame.kMatrix44KeyFrame
exported_frames = []
@ -486,52 +490,32 @@ class AnimationConverter:
exported.frame = keyframe.frame_num
exported.frameTime = keyframe.frame_time
exported.type = keyframe_type
exported.value = keyframe.value
exported.value = keyframe.values[0]
exported_frames.append(exported)
ctrl.keys = (exported_frames, keyframe_type)
return ctrl
def _make_point3_controller(self, fcurves, keyframes, bezier, default_xform):
def _make_point3_controller(self, keyframes, bezier) -> plLeafController:
ctrl = plLeafController()
subctrls = ("X", "Y", "Z")
keyframe_type = hsKeyFrame.kBezPoint3KeyFrame if bezier else hsKeyFrame.kPoint3KeyFrame
exported_frames = []
ctrl_fcurves = { i.array_index: i for i in fcurves }
for keyframe in keyframes:
exported = hsPoint3Key()
exported.frame = keyframe.frame_num
exported.frameTime = keyframe.frame_time
exported.type = keyframe_type
in_tan = hsVector3()
out_tan = hsVector3()
value = hsVector3()
for i, subctrl in enumerate(subctrls):
fval = keyframe.values.get(i, None)
if fval is not None:
setattr(value, subctrl, fval)
setattr(in_tan, subctrl, keyframe.in_tans[i])
setattr(out_tan, subctrl, keyframe.out_tans[i])
else:
try:
setattr(value, subctrl, ctrl_fcurves[i].evaluate(keyframe.frame_num_blender))
except KeyError:
setattr(value, subctrl, default_xform[i])
setattr(in_tan, subctrl, 0.0)
setattr(out_tan, subctrl, 0.0)
exported.inTan = in_tan
exported.outTan = out_tan
exported.value = value
exported.inTan = hsVector3(*keyframe.in_tans)
exported.outTan = hsVector3(*keyframe.out_tans)
exported.value = hsVector3(*keyframe.values)
exported_frames.append(exported)
ctrl.keys = (exported_frames, keyframe_type)
return ctrl
def _make_quat_controller(self, fcurves, keyframes, default_xform):
def _make_quat_controller(self, keyframes) -> plLeafController:
ctrl = plLeafController()
keyframe_type = hsKeyFrame.kQuatKeyFrame
exported_frames = []
ctrl_fcurves = { i.array_index: i for i in fcurves }
for keyframe in keyframes:
exported = hsQuatKey()
@ -540,58 +524,36 @@ class AnimationConverter:
exported.type = keyframe_type
# NOTE: quat keyframes don't do bezier nonsense
value = mathutils.Euler()
for i in range(3):
fval = keyframe.values.get(i, None)
if fval is not None:
value[i] = fval
else:
try:
value[i] = ctrl_fcurves[i].evaluate(keyframe.frame_num_blender)
except KeyError:
value[i] = default_xform[i]
quat = value.to_quaternion()
exported.value = utils.quaternion(quat)
value = mathutils.Euler(keyframe.values)
exported.value = utils.quaternion(value.to_quaternion())
exported_frames.append(exported)
ctrl.keys = (exported_frames, keyframe_type)
return ctrl
def _make_scalar_compound_controller(self, fcurves, keyframes, bez_chans, default_xform):
def _make_scalar_compound_controller(self, keyframes, bez_chans) -> plCompoundController:
ctrl = plCompoundController()
subctrls = ("X", "Y", "Z")
for i in subctrls:
setattr(ctrl, i, plLeafController())
exported_frames = ([], [], [])
ctrl_fcurves = { i.array_index: i for i in fcurves }
for keyframe in keyframes:
for i, subctrl in enumerate(subctrls):
fval = keyframe.values.get(i, None)
if fval is not None:
keyframe_type = hsKeyFrame.kBezScalarKeyFrame if i in bez_chans else hsKeyFrame.kScalarKeyFrame
exported = hsScalarKey()
exported.frame = keyframe.frame_num
exported.frameTime = keyframe.frame_time
exported.inTan = keyframe.in_tans[i]
exported.outTan = keyframe.out_tans[i]
exported.type = keyframe_type
exported.value = fval
exported_frames[i].append(exported)
keyframe_type = hsKeyFrame.kBezScalarKeyFrame if i in bez_chans else hsKeyFrame.kScalarKeyFrame
exported = hsScalarKey()
exported.frame = keyframe.frame_num
exported.frameTime = keyframe.frame_time
exported.inTan = keyframe.in_tans[i]
exported.outTan = keyframe.out_tans[i]
exported.type = keyframe_type
exported.value = keyframe.values[i]
exported_frames[i].append(exported)
for i, subctrl in enumerate(subctrls):
my_keyframes = exported_frames[i]
# ensure this controller has at least ONE keyframe
if not my_keyframes:
hack_frame = hsScalarKey()
hack_frame.frame = 0
hack_frame.frameTime = 0.0
hack_frame.type = hsKeyFrame.kScalarKeyFrame
hack_frame.value = default_xform[i]
my_keyframes.append(hack_frame)
getattr(ctrl, subctrl).keys = (my_keyframes, my_keyframes[0].type)
return ctrl
def _make_scalar_leaf_controller(self, keyframes, bezier):
def _make_scalar_leaf_controller(self, keyframes, bezier) -> plLeafController:
ctrl = plLeafController()
keyframe_type = hsKeyFrame.kBezScalarKeyFrame if bezier else hsKeyFrame.kScalarKeyFrame
exported_frames = []
@ -600,239 +562,192 @@ class AnimationConverter:
exported = hsScalarKey()
exported.frame = keyframe.frame_num
exported.frameTime = keyframe.frame_time
exported.inTan = keyframe.in_tan
exported.outTan = keyframe.out_tan
exported.inTan = keyframe.in_tans[0]
exported.outTan = keyframe.out_tans[0]
exported.type = keyframe_type
exported.value = keyframe.value
exported.value = keyframe.values[0]
exported_frames.append(exported)
ctrl.keys = (exported_frames, keyframe_type)
return ctrl
def _make_scale_value_controller(self, fcurves, keyframes, bez_chans, default_xform):
subctrls = ("X", "Y", "Z")
def _make_scale_value_controller(self, keyframes, bez_chans) -> plLeafController:
keyframe_type = hsKeyFrame.kBezScaleKeyFrame if bez_chans else hsKeyFrame.kScaleKeyFrame
exported_frames = []
ctrl_fcurves = { i.array_index: i for i in fcurves }
default_scale = default_xform.to_scale()
unit_quat = default_xform.to_quaternion()
unit_quat.normalize()
unit_quat = utils.quaternion(unit_quat)
# Hmm... This smells... But it was basically doing this before the rewrite.
unit_quat = hsQuat(0.0, 0.0, 0.0, 1.0)
for keyframe in keyframes:
exported = hsScaleKey()
exported.frame = keyframe.frame_num
exported.frameTime = keyframe.frame_time
exported.type = keyframe_type
in_tan = hsVector3()
out_tan = hsVector3()
value = hsVector3()
for i, subctrl in enumerate(subctrls):
fval = keyframe.values.get(i, None)
if fval is not None:
setattr(value, subctrl, fval)
setattr(in_tan, subctrl, keyframe.in_tans[i])
setattr(out_tan, subctrl, keyframe.out_tans[i])
else:
try:
setattr(value, subctrl, ctrl_fcurves[i].evaluate(keyframe.frame_num_blender))
except KeyError:
setattr(value, subctrl, default_scale[i])
setattr(in_tan, subctrl, 0.0)
setattr(out_tan, subctrl, 0.0)
exported.inTan = in_tan
exported.outTan = out_tan
exported.value = (value, unit_quat)
exported.inTan = hsVector3(*keyframe.in_tans)
exported.outTan = hsVector3(*keyframe.out_tans)
exported.value = (hsVector3(*keyframe.values), unit_quat)
exported_frames.append(exported)
ctrl = plLeafController()
ctrl.keys = (exported_frames, keyframe_type)
return ctrl
def _process_fcurve(self, fcurve, convert=None):
def _sort_and_dedupe_keyframes(self, keyframes : Dict) -> Sequence:
"""Takes in the final, unsorted keyframe sequence and sorts it. If all keyframes are
equivalent, eg due to a convert function, then they are discarded."""
num_keyframes = len(keyframes)
keyframes_sorted = [keyframes[i] for i in sorted(keyframes)]
# If any keyframe's value is equivalent to its boundary keyframes, discard it.
def filter_boundaries(i):
if i == 0 or i == num_keyframes - 1:
return False
left, me, right = keyframes_sorted[i - 1], keyframes_sorted[i], keyframes_sorted[i + 1]
return left.values == me.values == right.values
filtered_indices = list(itertools.filterfalse(filter_boundaries, range(num_keyframes)))
if len(filtered_indices) == 2:
if keyframes_sorted[filtered_indices[0]].values == keyframes_sorted[filtered_indices[1]].values:
return []
return [keyframes_sorted[i] for i in filtered_indices]
def _process_fcurve(self, fcurve, convert=None) -> Tuple[Sequence, AbstractSet]:
"""Like _process_keyframes, but for one fcurve"""
# Adapt from incoming single item sequence to a single argument.
single_convert = lambda x: convert(x[0]) if convert is not None else None
# Can't proxy to _process_fcurves because it only supports linear interoplation.
return self._process_keyframes([fcurve], 1, [0.0], single_convert)
def _santize_converted_values(self, num_channels : int, raw_values : Union[Dict, Sequence], convert : Callable):
assert convert is not None
if isinstance(raw_values, Dict):
values = convert(**raw_values)
elif isinstance(raw_values, Sequence):
values = convert(raw_values)
else:
raise AssertionError("Unexpected type for raw_values: {}".format(raw_values.__class__))
if not isinstance(values, Sequence) and isinstance(values, Iterable):
values = tuple(values)
if not isinstance(values, Sequence):
assert num_channels == 1, "Converter returned 1 value but expected {}".format(num_channels)
values = (values,)
else:
assert len(values) == num_channels, "Converter returned {} values but expected {}".format(len(values), num_channels)
return values
def _process_fcurves(self, fcurves : Sequence, channels : Dict[str, int], result_channels : int,
convert : Callable, defaults : Dict[str, Union[float, Sequence]]) -> Sequence:
"""This consumes a sequence of Blender FCurves that map to a single Plasma controller.
Like `_process_keyframes()`, except the converter function is mandatory, and each
Blender `data_path` must have a fixed number of channels.
"""
# TODO: This fxn should probably issue a warning if any keyframes use bezier interpolation.
# But there's no indication given by any other fxn when an invalid interpolation mode is
# given, so what can you do?
keyframe_data = type("KeyFrameData", (), {})
fps = self._bl_fps
pi = math.pi
fps, pi = self._bl_fps, math.pi
keyframes = {}
bezier = False
fcurve.update()
for fkey in fcurve.keyframe_points:
keyframe = keyframe_data()
frame_num, value = fkey.co
if fps == 30.0:
keyframe.frame_num = int(frame_num)
else:
keyframe.frame_num = int(frame_num * (30.0 / fps))
keyframe.frame_time = frame_num / fps
if fkey.interpolation == "BEZIER":
keyframe.in_tan = -(value - fkey.handle_left[1]) / (frame_num - fkey.handle_left[0]) / fps / (2 * pi)
keyframe.out_tan = (value - fkey.handle_right[1]) / (frame_num - fkey.handle_right[0]) / fps / (2 * pi)
bezier = True
else:
keyframe.in_tan = 0.0
keyframe.out_tan = 0.0
keyframe.value = value if convert is None else convert(value)
keyframes[frame_num] = keyframe
final_keyframes = [keyframes[i] for i in sorted(keyframes)]
return (final_keyframes, bezier)
def _process_fcurves(self, fcurves, convert, defaults=None):
"""Processes FCurves of different data sets and converts them into a single list of keyframes.
This should be used when multiple Blender fields map to a single Plasma option."""
class KeyFrameData:
def __init__(self):
self.values = {}
fps = self._bl_fps
pi = math.pi
# It is assumed therefore that any multichannel FCurves will have all channels represented.
# This seems fairly safe with my experiments with Lamp colors...
grouped_fcurves = {}
for fcurve in fcurves:
if fcurve is None:
continue
grouped_fcurves = defaultdict(dict)
for fcurve in (i for i in fcurves if i is not None):
fcurve.update()
if fcurve.data_path in grouped_fcurves:
grouped_fcurves[fcurve.data_path][fcurve.array_index] = fcurve
else:
grouped_fcurves[fcurve.data_path] = { fcurve.array_index: fcurve }
grouped_fcurves[fcurve.data_path][fcurve.array_index] = fcurve
# Default values for channels that are not animated
for key, value in defaults.items():
if key not in grouped_fcurves:
if hasattr(value, "__len__"):
grouped_fcurves[key] = value
fcurve_keyframes = defaultdict(functools.partial(defaultdict, dict))
for fcurve in (i for i in fcurves if i is not None):
for fkey in fcurve.keyframe_points:
fcurve_keyframes[fkey.co[0]][fcurve.data_path][fcurve.array_index] = fkey
def iter_channel_values(frame_num : int, fcurves : Dict, fkeys : Dict, num_channels : int, defaults : Union[float, Sequence]):
for i in range(num_channels):
fkey = fkeys.get(i, None)
if fkey is None:
fcurve = fcurves.get(i, None)
if fcurve is None:
# We would like to test this to see if it makes sense, but Blender's mathutils
# types don't actually implement the sequence protocol. So, we'll have to
# just try to subscript it and see what happens.
try:
yield defaults[i]
except:
assert num_channels == 1, "Got a non-subscriptable default for a multi-channel keyframe."
yield defaults
else:
yield fcurve.evaluate(frame_num)
else:
grouped_fcurves[key] = [value,]
yield fkey.co[1]
# Assemble a dict { PlasmaFrameNum: { FCurveDataPath: KeyFrame } }
keyframe_points = {}
for fcurve in fcurves:
if fcurve is None:
continue
for keyframe in fcurve.keyframe_points:
frame_num_blender, value = keyframe.co
frame_num = int(frame_num_blender * (30.0 / fps))
# This is a temporary keyframe, so we're not going to worry about converting everything
# Only the frame number to Plasma so we can go ahead and merge any rounded dupes
entry, data = keyframe_points.get(frame_num), None
if entry is None:
entry = {}
keyframe_points[frame_num] = entry
else:
data = entry.get(fcurve.data_path)
if data is None:
data = KeyFrameData()
data.frame_num = frame_num
data.frame_num_blender = frame_num_blender
entry[fcurve.data_path] = data
data.values[fcurve.array_index] = value
# Now, we loop through our assembled keyframes and interpolate any missing data using the FCurves
fcurve_chans = { key: len(value) for key, value in grouped_fcurves.items() }
expected_values = sum(fcurve_chans.values())
all_chans = frozenset(grouped_fcurves.keys())
# We will also do the final convert here as well...
final_keyframes = []
for frame_num in sorted(keyframe_points.copy().keys()):
keyframes = keyframe_points[frame_num]
frame_num_blender = next(iter(keyframes.values())).frame_num_blender
# If any data_paths are missing, init a dummy
missing_channels = all_chans - frozenset(keyframes.keys())
for chan in missing_channels:
dummy = KeyFrameData()
dummy.frame_num = frame_num
dummy.frame_num_blender = frame_num_blender
keyframes[chan] = dummy
# Ensure all values are filled out.
num_values = sum(map(len, (i.values for i in keyframes.values())))
if num_values != expected_values:
for chan, sorted_fcurves in grouped_fcurves.items():
chan_keyframes = keyframes[chan]
chan_values = fcurve_chans[chan]
if len(chan_keyframes.values) == chan_values:
continue
for i in range(chan_values):
if i not in chan_keyframes.values:
try:
fcurve = grouped_fcurves[chan][i]
except:
chan_keyframes.values[i] = defaults[chan]
else:
if isinstance(fcurve, bpy.types.FCurve):
chan_keyframes.values[i] = fcurve.evaluate(chan_keyframes.frame_num_blender)
else:
# it's actually a default value!
chan_keyframes.values[i] = fcurve
# All values are calculated! Now we convert the disparate key data into a single keyframe.
kwargs = { data_path: keyframe.values for data_path, keyframe in keyframes.items() }
final_keyframe = KeyFrameData()
final_keyframe.frame_num = frame_num
final_keyframe.frame_num_blender = frame_num_blender
final_keyframe.frame_time = frame_num / fps
value = convert(**kwargs)
if hasattr(value, "__len__"):
final_keyframe.in_tans = [0.0] * len(value)
final_keyframe.out_tans = [0.0] * len(value)
final_keyframe.values = value
else:
final_keyframe.in_tan = 0.0
final_keyframe.out_tan = 0.0
final_keyframe.value = value
final_keyframes.append(final_keyframe)
return final_keyframes
keyframes = {}
for frame_num, fkeys in fcurve_keyframes.items():
keyframe = keyframe_data()
# hope you don't have a frame 29.9 and frame 30.0...
keyframe.frame_num = int(frame_num * (30.0 / fps))
keyframe.frame_num_blender = frame_num
keyframe.frame_time = frame_num / fps
keyframe.values_raw = { data_path: tuple(iter_channel_values(frame_num, grouped_fcurves[data_path], fkeys, num_channels, defaults[data_path]))
for data_path, num_channels in channels.items() }
keyframe.values = self._santize_converted_values(result_channels, keyframe.values_raw, convert)
# Very gnawty
keyframe.in_tans = [0.0] * result_channels
keyframe.out_tans = [0.0] * result_channels
keyframes[frame_num] = keyframe
def _process_keyframes(self, fcurves, convert=None):
return self._sort_and_dedupe_keyframes(keyframes)
def _process_keyframes(self, fcurves, num_channels : int, default_values : Sequence, convert=None) -> Tuple[Sequence, AbstractSet]:
"""Groups all FCurves for the same frame together"""
keyframe_data = type("KeyFrameData", (), {})
fps = self._bl_fps
pi = math.pi
fps, pi = self._bl_fps, math.pi
keyframes = {}
bez_chans = set()
for fcurve in fcurves:
keyframes, fcurve_keyframes = {}, defaultdict(dict)
indexed_fcurves = { fcurve.array_index: fcurve for fcurve in fcurves if fcurve is not None }
for i, fcurve in indexed_fcurves.items():
fcurve.update()
for fkey in fcurve.keyframe_points:
frame_num, value = fkey.co
keyframe = keyframes.get(frame_num, None)
if keyframe is None:
keyframe = keyframe_data()
if fps == 30.0:
# hope you don't have a frame 29.9 and frame 30.0...
keyframe.frame_num = int(frame_num)
else:
keyframe.frame_num = int(frame_num * (30.0 / fps))
keyframe.frame_num_blender = frame_num
keyframe.frame_time = frame_num / fps
keyframe.in_tans = {}
keyframe.out_tans = {}
keyframe.values = {}
keyframes[frame_num] = keyframe
idx = fcurve.array_index
keyframe.values[idx] = value if convert is None else convert(value)
# Calculate the bezier interpolation nonsense
if fkey.interpolation == "BEZIER":
keyframe.in_tans[idx] = -(value - fkey.handle_left[1]) / (frame_num - fkey.handle_left[0]) / fps / (2 * pi)
keyframe.out_tans[idx] = (value - fkey.handle_right[1]) / (frame_num - fkey.handle_right[0]) / fps / (2 * pi)
bez_chans.add(idx)
fcurve_keyframes[fkey.co[0]][i] = fkey
def iter_values(frame_num, fkeys) -> Generator[float, None, None]:
for i in range(num_channels):
fkey = fkeys.get(i, None)
if fkey is not None:
yield fkey.co[1]
else:
keyframe.in_tans[idx] = 0.0
keyframe.out_tans[idx] = 0.0
fcurve = indexed_fcurves.get(i, None)
if fcurve is not None:
yield fcurve.evaluate(frame_num)
else:
yield default_values[i]
# Does this really need to be a set?
bez_chans = set()
for frame_num, fkeys in fcurve_keyframes.items():
keyframe = keyframe_data()
# hope you don't have a frame 29.9 and frame 30.0...
keyframe.frame_num = int(frame_num * (30.0 / fps))
keyframe.frame_num_blender = frame_num
keyframe.frame_time = frame_num / fps
keyframe.in_tans = [0.0] * num_channels
keyframe.out_tans = [0.0] * num_channels
keyframe.values_raw = tuple(iter_values(frame_num, fkeys))
if convert is None:
keyframe.values = keyframe.values_raw
else:
keyframe.values = self._santize_converted_values(num_channels, keyframe.values_raw, convert)
for i, fkey in ((i, fkey) for i, fkey in fkeys.items() if fkey.interpolation == "BEZIER"):
value = keyframe.values_raw[i]
keyframe.in_tans[i] = -(value - fkey.handle_left[1]) / (frame_num - fkey.handle_left[0]) / fps / (2 * pi)
keyframe.out_tans[i] = (value - fkey.handle_right[1]) / (frame_num - fkey.handle_right[0]) / fps / (2 * pi)
bez_chans.add(i)
keyframes[frame_num] = keyframe
# Return the keyframes in a sequence sorted by frame number
final_keyframes = [keyframes[i] for i in sorted(keyframes)]
return (final_keyframes, bez_chans)
return (self._sort_and_dedupe_keyframes(keyframes), bez_chans)
@property
def _mgr(self):

Write Preview
Loading…
Cancel
Save