def rigRecon(input, context, timeOffset, rot, transl):
for name in input.keys():
entry = input[name]
bpy.ops.object.select_pattern(pattern=name + "*", extend=False)
print("pattern: %s" % name + '*')
obj = context.selected_objects[0]
print("Keyframing %s" % obj.name)
prevPose = None
prevEuler = None
offset = Vector((0, 0, 0))
for sFrameId in entry['log'].keys():
state = entry['log'][sFrameId]
frameId = int(sFrameId)
#print( "Adding keyFrame %d" % frameId )
context.scene.frame_set(frameId)
obj.location = state['pos']
obj.rotation_mode = 'QUATERNION'
q = Quaternion(state['pose'])
if prevPose:
if q.dot(prevPose) < 0:
q.negate()
#print('newq:',q)
# else:
# print('dotok:', prevPose, q, q.dot(prevPose))
obj.rotation_quaternion = q
#obj.rotation_euler = q.to_euler('XYZ')
#obj.rotation_euler.x += offset.x
#obj.rotation_euler.y += offset.y
#obj.rotation_euler.z += offset.z
#if prevEuler:
# d = Vector(obj.rotation_euler) - Vector(prevEuler)
# if d.length > 1:
# print("[",sFrameId,"] d: ", d )
# print('prev: ', prevEuler, 'new: ', obj.rotation_euler)
# if abs(d.x) > math.pi/2:
# offset.x += 2*math.pi
# obj.rotation_euler.x += 2*math.pi
# print( "offset.x:" , offset.x, 'newx: ', obj.rotation_euler.x )
# if abs(d.y) > math.pi/2:
# offset.y += 2*math.pi
# obj.rotation_euler.y += 2*math.pi
# print( "offset.y:" , offset.y, 'newy: ', obj.rotation_euler.y )
# if abs(d.z) > math.pi/2:
# offset.z += 2*math.pi
# obj.rotation_euler.z += 2*math.pi
# print( "offset.z:" , offset.z, 'newz: ', obj.rotation_euler.z )
#obj.rotation_euler.x -= math.pi / 2.
#bpy.ops.anim.keyframe_insert()
#obj.keyframe_insert( data_path="LocRot", index=-1,frame=frameId)
bpy.ops.anim.keying_set_active_set(type='BUILTIN_KSI_LocRot')
bpy.ops.anim.keyframe_insert()
#obj.keyframe_insert(index=-1)
#obj.keyframe_insert(data_path="location", index=-1, frame=frameId)
#obj.keyframe_insert(data_path="rotation", index=-1, frame=frameId)
prevPose = q.copy()
prevEuler = obj.rotation_euler.copy()
class Transform(object):
world_scale = 0.1
world_scale_reciprocal = 10.0 # := 1/world_scale
def __init__(self):
self.translation = Vector((0, 0, 0))
self.rotation = Quaternion()
self.scale = 1
def read(self, file):
v = read_vector4(file)
q = read_vector4(file)
scale = read_vector4(file)
self.translation = Vector(v.xyz) * self.world_scale
self.rotation = Quaternion(q.wxyz)
self.scale = scale.z
def write(self, file):
v = self.translation * self.world_scale_reciprocal
v = (v.x, v.y, v.z, 0)
q = self.rotation
q = (q.x, q.y, q.z, q.w)
scale = (self.scale, self.scale, self.scale, 0)
write_vector4_raw(file, v)
write_vector4_raw(file, q)
write_vector4_raw(file, scale)
def __mul__(self, other):
t = Transform()
v = Vector(other.translation) # dup
v.rotate(self.rotation)
t.translation = self.translation + v * self.scale
t.rotation = self.rotation * other.rotation
t.scale = self.scale * other.scale
return t
def to_matrix(self):
m_rotation = self.rotation.to_matrix().to_4x4() # 3x3 to 4x4
m_scale = Matrix.Scale(self.scale, 4)
m = m_rotation * m_scale
m.translation = self.translation
return m
def copy(self):
t = Transform()
t.translation = self.translation.copy()
t.rotation = self.rotation.copy()
t.scale = self.scale
return t
def applied_influence(matrix, group_matrix=None):
q = matrix.to_3x3().to_quaternion()
loc = matrix.to_translation()
if self.mode == 'A_TO_B':
q0 = Quaternion([1, 0, 0, 0])
loc0 = Vector()
else:
q0 = group_matrix.to_quaternion()
if self.transform_mode == 'TRANSLATE':
q = q0.copy()
if self.transform_mode in {'ALL', 'TRANSLATE'}:
loc0 = group_matrix.to_translation()
else:
loc0 = Vector()
q = q * self.influence + q0 * (1.0 - self.influence)
loc = loc * self.influence + loc0 * (1.0 - self.influence)
mat = q.to_matrix().to_4x4()
mat.col[3][:3] = loc
return mat
def applied_influence(matrix, group_matrix=None):
q = matrix.to_3x3().to_quaternion()
loc = matrix.to_translation()
if self.mode == 'A_TO_B':
q0 = Quaternion([1, 0, 0, 0])
loc0 = Vector()
else:
q0 = group_matrix.to_quaternion()
if self.transform_mode == 'TRANSLATE':
q = q0.copy()
if self.transform_mode in {'ALL', 'TRANSLATE'}:
loc0 = group_matrix.to_translation()
else:
loc0 = Vector()
q = q * self.influence + q0 * (1.0 - self.influence)
loc = loc * self.influence + loc0 * (1.0 - self.influence)
mat = q.to_matrix().to_4x4()
mat.col[3][:3] = loc
return mat
def deviate(branch_angle, branching, twist, initial_phyllotaxic_angle,
plagiotropism_buds, gravitropism_buds, parent_direction, i, j):
direction = parent_direction.normalized()
axis = direction.to_track_quat('X', 'Z') * Vector((0.0, 0.0, 1.0))
deviate_dir = Quaternion(axis, branch_angle) * direction
offset = 0.0
if branching == 1:
offset = 2.4
elif branching == 2:
offset = 1.5708 + twist
elif branching == 3:
offset = 2.4
elif branching == 4:
offset = 0.7854 + twist
elif branching == 5:
offset = 0.6283
elif branching == 6:
offset = 0.5236
phyllotaxis_angle = initial_phyllotaxic_angle + offset * i
phyllotaxis_angle += 6.2832 * j / branching
phyllotaxis_angle %= 6.2832
flat_dir = parent_direction.copy()
flat_dir.z = 0.0
horizontal = 1.0 - (abs(parent_direction.angle(flat_dir, 0.0)) / 1.5708)
if parent_direction.x == 0.0 and parent_direction.y == 0.0:
horizontal = 0.0
plagio = plagiotropism_buds * horizontal
if plagio > 1.0:
plagio = 1.0
if phyllotaxis_angle < 1.5708:
phyllotaxis_angle = (1.0 - plagio) * phyllotaxis_angle
elif phyllotaxis_angle < 4.7124:
phyllotaxis_angle = plagio * 3.1416 + (1.0 -
plagio) * phyllotaxis_angle
else:
phyllotaxis_angle = plagio * 6.2832 + (1.0 -
plagio) * phyllotaxis_angle
deviate_dir = Quaternion(direction, phyllotaxis_angle) * deviate_dir
flat_deviate_dir = deviate_dir.copy()
flat_deviate_dir.z = 0.0
strength = (1.0 - horizontal) * plagiotropism_buds
deviate_dir = deviate_dir.lerp(flat_deviate_dir, strength)
if gravitropism_buds < 0.0:
vector_up = Vector((0.0, 0.0, 1.0))
deviate_dir = deviate_dir.lerp(vector_up, -gravitropism_buds)
else:
vector_down = Vector((0.0, 0.0, -1.0))
deviate_dir = deviate_dir.lerp(vector_down, gravitropism_buds)
return deviate_dir
# plant['q'] = Vector((0.0, 0.0, 1.0))
plant['q'] = Quaternion((0.0, 0.0, 0.0, 1.0))
plant['w'] = Vector((1.0, 0.0, 0.0))
plant['accel_e'] = Vector((0.0, 0.0, 0.0))
frame_step = 1
loop_num = 1
sc.frame_current = loop_num * frame_step
while sc.frame_current <= sc.frame_end:
# plant["x"] = plant["x"] +
delta_x = (plant["v"] * delta_t) + (
(accel_g + plant['accel_e']) * delta_t * delta_t / 2)
plant['x'] += delta_x
plant['v'] = delta_x / delta_t
wq = Quaternion(plant['w'][:], plant['w'].length)
wqI = wq.copy()
wqI.invert()
q_w = wq * plant['q'] * wqI
ops.object.select_pattern(pattern=plant['name'])
# ops.transform.translate(value=(0,0,growth_rate))
# ops.transform.translate(delta_x)
ob = ctx.active_object
ob.location = ob.location + delta_x
ops.transform.rotate(value=plant['w'].length * delta_t, axis=plant['w'][:])
# ops.transform.resize(value=(1,1,((loop_num+1)/loop_num)))
# ob.location = (0,0,2)
# ob.scale = (1,1,2)
ops.anim.keyframe_insert_menu(type='Location')
ops.anim.keyframe_insert_menu(type='Rotation')
# ops.anim.keyframe_insert_menu(type='Scaling')
def addKeyFrames( input, context ):
for name in input.keys():
entry = input[name];
bpy.ops.object.select_pattern(pattern=name+"*", extend=False )
#print( "pattern: %s" % name+'*')
obj = context.selected_objects[0]
print("Keyframing %s" % obj.name )
prevPose = None
prevEuler = None
offset = Vector((0,0,0))
for sFrameId in entry['log'].keys():
state = entry['log'][sFrameId]
frameId = int(sFrameId)
#print( "Adding keyFrame %d" % frameId )
context.scene.frame_set( frameId )
hasPos = False
hasPose = False
if 'pos' in state:
obj.location = state['pos']
hasPos = True
if 'pose' in state:
obj.rotation_mode = 'QUATERNION'
q = Quaternion(state['pose'])
#if prevPose:
# if q.dot(prevPose) < 0:
# q.negate()
# print('newq:',q)
# else:
# print('dotok:', prevPose, q, q.dot(prevPose))
obj.rotation_quaternion = q
hasPose = True
#obj.rotation_euler = q.to_euler('XYZ')
#obj.rotation_euler.x += offset.x
#obj.rotation_euler.y += offset.y
#obj.rotation_euler.z += offset.z
#if prevEuler:
# d = Vector(obj.rotation_euler) - Vector(prevEuler)
# if d.length > 1:
# print("[",sFrameId,"] d: ", d )
# print('prev: ', prevEuler, 'new: ', obj.rotation_euler)
# if abs(d.x) > math.pi/2:
# offset.x += 2*math.pi
# obj.rotation_euler.x += 2*math.pi
# print( "offset.x:" , offset.x, 'newx: ', obj.rotation_euler.x )
# if abs(d.y) > math.pi/2:
# offset.y += 2*math.pi
# obj.rotation_euler.y += 2*math.pi
# print( "offset.y:" , offset.y, 'newy: ', obj.rotation_euler.y )
# if abs(d.z) > math.pi/2:
# offset.z += 2*math.pi
# obj.rotation_euler.z += 2*math.pi
# print( "offset.z:" , offset.z, 'newz: ', obj.rotation_euler.z )
#obj.rotation_euler.x -= math.pi / 2.
#bpy.ops.anim.keyframe_insert()
#obj.keyframe_insert( data_path="LocRot", index=-1,frame=frameId)
# try:
# if hasPose and hasPos:
# bpy.ops.anim.keying_set_active_set( type='BUILTIN_KSI_LocRot' )
# elif hasPose:
# bpy.ops.anim.keying_set_active_set( type='BUILTIN_KSI_Rot' )
# elif hasPos:
# bpy.ops.anim.keying_set_active_set( type='BUILTIN_KSI_Loc')
# bpy.ops.anim.keyframe_insert()
# except:
if hasPos:
obj.keyframe_insert( data_path="location", index=-1,frame=frameId)
if hasPose:
#print('adding pose keyframe')
obj.keyframe_insert( data_path="rotation_quaternion", index=-1,frame=frameId)
#obj.keyframe_insert(index=-1)
#obj.keyframe_insert(data_path="location", index=-1, frame=frameId)
#obj.keyframe_insert(data_path="rotation", index=-1, frame=frameId)
if hasPose:
prevPose = q.copy()
prevEuler = obj.rotation_euler.copy()
#context.scene.frame_set(current_frame)
#bpy.context.active_object.hide = doHide
#bpy.context.active_object.hide_render = doHide
#bpy.context.active_object.keyframe_insert( data_path="hide",
# index=-1,
# frame=current_frame)
