def listStorableAttrs(self , node, shortName=True, noCompound=True):
"""
@brief List every attributes of a node who can go trough the pipeline and whose value will be stored.
@return : List
@param node - String - Node to get the attributes of.
@param shortName - Bool - If True, return attributes short name.
@param noCompound - Bool - If True, exclude compound attributes.
"""
def __getShortName(node, attr, shortName):
result = attr
if shortName:
names = attr.split('.')
snames = []
for name in names:
if name.endswith(']'):
snames.append(name)
else:
snames.append(mc.attributeQuery(name, node=node, shortName=True))
result = ".".join(snames)
return result
result = []
nodeType = mc.nodeType(node)
if not mc.listAnimatable(node):
return result
for s in mc.listAnimatable(node):
if noCompound:
if len(s.split('.')) > 2:
continue
nodeName = s.split('.')[0]
attr = ".".join(s.split('.')[1:])
## Remove attributes on the shapes (listAnimatable return them)
if mc.nodeType(node) == mc.nodeType(nodeName):
attr = __getShortName(node, attr, shortName)
result.append(str(attr))
attrs = mc.listAttr(node, cb=True)
if attrs:
for attr in attrs:
attr = __getShortName(node, attr, shortName)
result.append(str(attr))
if mc.listAttr(node, userDefined=True):
extra = [str(x) for x in mc.listAttr(node, userDefined=True) if mc.getAttr("%s.%s" % (node, x), type=True) == 'string' if not x.startswith("rnkInit_") if not mc.getAttr("%s.%s" % (node, x), lock=True)]
if extra:
result.extend(extra)
return result
def reset_animation_attributes(node):
for attr in mc.listAnimatable(node):
try:
set_default_attribute_value(node, attr)
except RuntimeError:
print('Skipped %s' % attr)
continue
def copyKeyframes():
objs = cmds.ls(selection=True)
if (len(objs) < 2):
cmds.error("Please select at least two Objects")
sourceObj = objs[0] # First selected object is for copy
# Find animated attributes and put on a list
animAttributes = cmds.listAnimatable(sourceObj)
# Go round the list
for attribute in animAttributes:
# Get the key frame numbers of animated attributes
numKeyframes = cmds.keyframe(attribute, query=True, keyframeCount=True)
if (numKeyframes > 0):
# Copy keyframes where animated attribute is existed
cmds.copyKey(attribute) # Hold keyframes temporarily in memory
# No additional flag, grabbing all keyframes for the specified attribute
# Paste keyframes to other objects
for obj in objs[1:]:
cmds.pasteKey(obj,
attribute=getAttrName(attribute),
option="replace")
def cam_con_move(self):
# 按钮执行函数
cam = selected()[0]
cam_grp = cam.root()
cam_aim = 0
try:
for i in cam_grp.listRelatives():
if 'locator' in i.getShape().type():
cam_aim = 1
self.cam_aim_aim_name = i.name()
except:
animAttributes = cmds.listAnimatable(cam.name())
for attribute in animAttributes:
# 求出K了多少次
numKeyframes = cmds.keyframe(attribute,
query=True,
keyframeCount=True)
if numKeyframes > 0:
self.cam_copyKeyframes(cam)
break
else:
self.cam_noaim_con(cam)
if cam_aim:
for i in cam_grp.listRelatives():
if 'camera' in i.getShape().type():
select(i)
cam = selected()[0]
self.cam_aim_con(cam)
def run():
# get objects
objs = cmds.ls(sl=1, l=1)
# get playback settings
startTime = int(cmds.playbackOptions(q=1, min=1))
endTime = int(cmds.playbackOptions(q=1, max=1))
timeRange = range(startTime, endTime + 1)
allDict = {}
attrDict = {}
for o in objs:
print("object", o)
attrs = cmds.listAnimatable(o)
frames = cmds.keyframe(obj, q=True, at=attr)
values = cmds.keyframe(obj, q=True, at=attr, vc=True)
for t in timeRange:
print("frame", t)
for a in attrs:
print a
val = cmds.keyframe(o, at=a, t=(t, t), ev=1, q=1)
if val == None:
val = cmds.getAttr(a, t=t)
#print val
attrDict[a] = val
allDict[t] = attrDict
print allDict
def getAnimationData():
objs = cmds.ls(selection=True)
obj = objs[0]
animAttributes = cmds.listAnimatable(obj)
for attribute in animAttributes:
numKeyframes = cmds.keyframe(attribute, query=True, keyframeCount=True)
if (numKeyframes > 0):
print("---------------------------")
print("Found ", numKeyframes, " keyframes on ", attribute)
times = cmds.keyframe(attribute,
query=True,
index=(0, numKeyframes),
timeChange=True)
values = cmds.keyframe(attribute,
query=True,
index=(0, numKeyframes),
valueChange=True)
print('frame#, time, value')
for i in range(0, numKeyframes):
print(i, times[i], values[i])
print("---------------------------")
def listAnimatable(*args, **kwargs):
"""
Modifications:
- returns an empty list when the result is None
- returns wrapped classes
"""
return map(_general.PyNode,
_util.listForNone(cmds.listAnimatable(*args, **kwargs)))
def cbAttrs(ctrl):
'''Find all visible attributes in the channel box'''
cb_list = cmds.listAnimatable(ctrl)
new_list = []
if cb_list is not None:
for atr_long in cb_list:
atr_short = atr_long.rpartition('.')[2]
new_list.append(atr_short)
return new_list
return
def copyKeyframes(self):
undoInfo(closeChunk=True)
objs = cmds.ls(selection=True)
if (len(objs) < 2):
cmds.error("Please select at least two objects")
sourceObj = objs[0]
animAttributes = cmds.listAnimatable(sourceObj);
for attribute in animAttributes:
numKeyframes = cmds.keyframe(attribute, query=True, keyframeCount=True)
if (numKeyframes > 0):
cmds.copyKey(attribute)
for obj in objs[1:]:
cmds.pasteKey(obj, attribute=self.getAttName(attribute), option="replace")
undoInfo(closeChunk=True)
def getAnimatableAttributes(obj):
'''Returns keyable attributes on an object. Always returns a list'''
attrs = cmd.listAnimatable(obj)
if attrs:
# Remove shapes from attributes. List animatable includes them
# by default.
# attrs = [attr for attr in attrs if not cmd.ls(attr.split('.')[0], s = 1)]
# Homogenize names. (listAnimatable returns FULL paths).
# ListAnimatable might return a shape instead of the original
# given object, so cmd.ls(attr, o = 1)[0] is needed to determine
# the relative path.
attrs = [homogonizeName(attr) for attr in attrs]
else:
attrs = []
removeUnderworldFromPath(attrs)
return attrs
def copyKeyframes(self, obj1, obj2):
obj1 = obj1.name()
obj2 = obj2.name()
objs = [obj1, obj2]
if (len(objs) < 2):
cmds.error("Please select at least two objects")
sourceObj = objs[0]
animAttributes = cmds.listAnimatable(sourceObj)
for attribute in animAttributes:
numKeyframes = cmds.keyframe(attribute,
query=True,
keyframeCount=True)
if (numKeyframes > 0):
cmds.copyKey(attribute)
for obj in objs[1:]:
cmds.pasteKey(obj,
attribute=self.getAttName(attribute),
option="replace")
def getAnimatableAttributes(obj):
'''Returns keyable attributes on an object. Always returns a list'''
attrs = cmd.listAnimatable(obj)
if attrs:
# Remove shapes from attributes. List animatable includes them
# by default.
# attrs = [attr for attr in attrs if not cmd.ls(attr.split('.')[0], s = 1)]
# Homogenize names. (listAnimatable returns FULL paths).
# ListAnimatable might return a shape instead of the original
# given object, so cmd.ls(attr, o = 1)[0] is needed to determine
# the relative path.
attrs = [homogonizeName(attr) for attr in attrs]
else:
attrs = []
removeUnderworldFromPath(attrs)
return attrs
def TranslateZ(amountToScale):
"""TranslateZ of the root by amountToScale. Use percentage from 0.0-2.0"""
objs = mc.ls(sl=True)
obj = objs[0]
animAttr = mc.listAnimatable(obj)
animAttrIndex = 0
for attr in animAttr:
numKeyFrames = mc.keyframe(attr, query=True, keyframeCount=True)
if (attr == u'|root.translateZ'):
times = mc.keyframe(attr,
query=True,
index=(0, numKeyFrames),
timeChange=True)
values = mc.keyframe(attr,
query=True,
index=(0, numKeyFrames),
valueChange=True)
for i in range(0, numKeyFrames):
mc.setKeyframe(obj + '.translateZ',
value=values[i] * amountToScale,
time=times[i])
def getAnimationData():
'''
Get Animation Data about selected object
'''
# Grab first selected object
objs = cmds.ls(selection=True)
obj = objs[0]
# Get the Animation Data on List
animAttributes = cmds.listAnimatable(obj)
# Go round the list
for attribute in animAttributes:
# Count the Keyframes
numKeyframes = cmds.keyframe(attribute,
query=True,
time=(1, 100),
keyframeCount=True)
if (numKeyframes > 0): # Could Key frames be negative?
print("---------------------------")
print("Found ", numKeyframes, " keyframes on ", attribute)
times = cmds.keyframe(attribute,
query=True,
index=(0, numKeyframes),
timeChange=True)
values = cmds.keyframe(attribute,
query=True,
index=(0, numKeyframes),
valueChange=True)
print("frame#, time, value")
for i in range(0, numKeyframes):
print(i, times[i], values[i])
print("---------------------------")
def mirrorTempControls(obj, plug=True):
attributes = []
#
allAttrs = cmds.listAttr(obj)
cbAttrs = cmds.listAnimatable(obj)
if allAttrs and cbAttrs:
orderedAttrs = [
attr for attr in allAttrs for cb in cbAttrs if cb.endswith(attr)
]
if u'visibility' in orderedAttrs:
orderedAttrs.remove(u'visibility')
orderedAttrs.append(u'visibility')
attributes.extend(orderedAttrs)
# print attributes
node = obj.replace('_L_', '_R_')
for attr in attributes:
#
if plug:
if cmds.objExists(obj +
'.%s' % attr) and cmds.objExists(node +
'.%s' % attr):
if not cmds.isConnected(obj + '.%s' % attr,
node + '.%s' % attr):
cmds.connectAttr(obj + '.%s' % attr,
node + '.%s' % attr,
f=True)
else:
if cmds.objExists(obj +
'.%s' % attr) and cmds.objExists(node +
'.%s' % attr):
if cmds.isConnected(obj + '.%s' % attr, node + '.%s' % attr):
cmds.disconnectAttr(obj + '.%s' % attr,
node + '.%s' % attr)
def adjustment_blend_selected():
sel = cmds.ls(sl=1)
if not sel:
cmds.warning("Nothing happened. Nothing selected.")
return None
for thing in sel:
cmds.select(clear=True)
cmds.select(thing)
attributes = cmds.listAnimatable()
for attribute in attributes:
attribute = attribute.split('|')[-1]
layer_membership = get_layer_membership(attribute)
if len(layer_membership) > 2:
cmds.error(
"Selected channel belongs to more than two layers -> {}".
format(layer_membership))
cmds.warning(
"For proper use, the channel should belong to only BaseAnimation plus one anim layer to composite the offset."
)
continue
if len(layer_membership) < 2:
print "No adjustment curve found for {}.".format(attribute)
continue
# This is much simpler:
layers_curves = {}
for layer in layer_membership:
curves = cmds.animLayer(
layer, q=True, findCurveForPlug=attribute) or []
for curve in curves:
layers_curves[layer] = curve
adjustment_range = []
adjustment_curve = ''
base_curve = ''
adjustment_layer = ''
base_layer = ''
for layer, curve in layers_curves.items():
if layer != cmds.animLayer(query=True, root=True):
times = cmds.keyframe(curve, q=True, timeChange=True)
adjustment_range = [min(times), max(times)]
adjustment_curve = curve
adjustment_layer = layer
else:
base_curve = curve
base_layer = layer
adjustment_range_filled = get_curve_range(base_curve,
adjustment_curve)
if len(adjustment_range_filled) < 3:
print "No meaningful adjustment found for {0}".format(
attribute)
continue
base_curve_values = []
for time in adjustment_range_filled:
base_curve_values.append(
cmds.keyframe(base_curve,
query=True,
time=(time, ),
eval=True,
valueChange=True,
absolute=True)[0])
base_value_graph = [0.0]
for i in xrange(len(base_curve_values)):
if i > 0:
current_value = base_curve_values[i]
previous_value = base_curve_values[i - 1]
base_value_graph.append(abs(current_value -
previous_value))
adjustment_curve_values = []
for time in adjustment_range_filled:
adjustment_curve_values.append(
cmds.keyframe(adjustment_curve,
query=True,
time=(time, ),
eval=True,
valueChange=True,
absolute=True)[0])
adjustment_value_graph = [0.0]
for i in xrange(len(adjustment_curve_values)):
if i > 0:
current_value = adjustment_curve_values[i]
previous_value = adjustment_curve_values[i - 1]
adjustment_value_graph.append(
abs(current_value - previous_value))
if sum(adjustment_value_graph) > sum(base_value_graph):
print "sum({0}) is larger than sum({1}). This *may* lead to weird results. Or it might be fine.".format(
adjustment_curve, base_curve)
normalized_adjustment_value_graph = normalize_values(
adjustment_value_graph)
if abs(sum(base_value_graph)) > 0.0:
normalized_base_value_graph = normalize_values(
base_value_graph)
else:
# Be 'smart' about rotates and translates by bundling them for stragglers
# Check neighboring axis
other_value_graphs = {}
current_axis = [
x for x in AXIS if (x in attribute.split('.')[-1])
] or None
if current_axis:
for axis in AXIS: # Sorry
if axis != current_axis[0]:
adjacent_attribute = attribute.split(
'.')[-1].replace(current_axis[0], axis)
new_adjacent_attribute_name = attribute.replace(
attribute.split('.')[-1], adjacent_attribute)
adjacent_curve = cmds.animLayer(
base_layer,
q=True,
findCurveForPlug=new_adjacent_attribute_name)
if adjacent_curve:
adjacent_curve_values = []
for time in adjustment_range_filled:
value = cmds.keyframe(adjacent_curve,
query=True,
time=(time, ),
eval=True,
valueChange=True,
absolute=True) or []
adjacent_curve_values.extend(value)
adjacent_curve_value_graph = [0.0]
for i in xrange(len(adjacent_curve_values)):
if i > 0:
current_value = adjacent_curve_values[
i]
previous_value = adjacent_curve_values[
i - 1]
adjacent_curve_value_graph.append(
abs(current_value -
previous_value))
other_value_graphs[
axis] = adjacent_curve_value_graph
# Add the other axis together to see if it's non-zero
added_graphs = [0.0 for x in adjustment_range_filled]
for _, values in other_value_graphs.items():
for i, value in enumerate(values):
added_graphs[i] += value
# Normalize the added graphs
normalized_base_value_graph = normalize_values(
added_graphs)
if normalized_base_value_graph:
adjustment_curve_keys = cmds.keyframe(adjustment_curve,
q=True,
timeChange=True)
adjustment_spans = zip(adjustment_curve_keys,
adjustment_curve_keys[1:])
# Ok, this area got FUGLY but it works. Sorry.
# TODO: Come back and make this not look like shit.
for span in adjustment_spans:
if span[-1] - 1.0 == span[0]:
continue # Ignore please
new_value_curve = []
sum_percentage = 0.0
adjustment_range_filled_cropped = []
adjustment_curve_values_cropped = []
cropped_base_value_graph = []
for index, time in enumerate(adjustment_range_filled):
if time >= min(span) and time <= max(span):
adjustment_range_filled_cropped.append(time)
adjustment_curve_values_cropped.append(
adjustment_curve_values[index])
cropped_base_value_graph.append(
normalized_base_value_graph[index])
normalized_cropped_base_value_graph = normalize_values(
cropped_base_value_graph)
if normalized_cropped_base_value_graph:
for i in xrange(len(adjustment_range_filled_cropped)):
sum_percentage += normalized_cropped_base_value_graph[
i] # This will add up to 100 along the life of the curve
new_value = map_from_to(
sum_percentage, 0, 100,
adjustment_curve_values_cropped[0],
adjustment_curve_values_cropped[-1])
new_value_curve.append(new_value)
# Now set the keys
for index, time in enumerate(
adjustment_range_filled_cropped):
cmds.setKeyframe(adjustment_curve,
animLayer=adjustment_layer,
time=(time, ),
value=new_value_curve[index])
else:
for index, time in enumerate(adjustment_range_filled):
cmds.setKeyframe(
adjustment_curve,
animLayer=adjustment_layer,
time=(time, ),
value=adjustment_curve_values[index])
else:
for index, time in enumerate(adjustment_range_filled):
cmds.setKeyframe(adjustment_curve,
animLayer=adjustment_layer,
time=(time, ),
value=adjustment_curve_values[index])
cmds.select(clear=True)
cmds.select(sel)
def Anim_obj1(Animpose_name,currentImagePath):
Val1=mc.floatField('Start_F',q=1,v=1)
Val2=mc.floatField('End_F',q=1,v=1)
Val1=str(Val1);Val2=str(Val2)
frm_rang="("+str(Val1)+'-'+str(Val2)+")"
frameNumber = mc.currentTime(q=1)
frameNumber =int(frameNumber)
iconTmp = currentImagePath + "iconTmp." + str(frameNumber)+ ".bmp"
print ("\niconTmp = " + iconTmp)
Currnt_path=savepathini+'SavePose/'
Anim_newname=Animpose_name+frm_rang
testpath = savepathini
seltab5 = mc.shelfTabLayout('Animation',q=1,st=1)
animpath = (testpath + 'SavePose/Animation/'+seltab5+'/')
animpath1= animpath
animpath2= animpath1 + Anim_newname + '.anim'
newAnimIconFile = animpath1 + Anim_newname +".bmp"
if mc.file(animpath2,q=1,ex=1):
Overrite = mc.confirmDialog(
title='Confirm Save Anim',
message='Overwrite the existing anim: '+Anim_newname+'?',
button=['Yes', 'No'],
defaultButton='Yes',
cancelButton='No',
dismissString='No')
if Overrite =='No':
return
mc.sysFile(iconTmp,copy=newAnimIconFile)
sel_obj = mc.ls(sl=1)
chkanim=mc.listConnections(sel_obj,t='animCurve',d=0)
if chkanim==None:
mc.confirmDialog (title='Error' ,message= 'Selected object has no anim', button=['OK'] ,defaultButton='Yes')
return
print '\nWriting Animation Curves...\n'
fileID = open(animpath2,'w')
fileID.write('#Generated by Anim_Poselib.py\n#\n#poselib written by Sreekanth.S.R\n#[email protected]\n#\n')
if ":" in sel_obj[0]:
ref_name = sel_obj[0].split(':')[0]
else:
ref_name = sel_obj[0]
fileID.write('Asst_name '+ ref_name+'\n')
fileID.write('frameRange '+Val1+'\n')
for item in sel_obj:
shortItem= mc.ls(item,sl=1)
channels = mc.listConnections(item,t='animCurve', d = 0)
if channels:
for chan in channels:
connects= mc.listConnections(chan,p=1)
curattr = connects[0].split('.')
num = len(curattr)
buffer=curattr
num = num - 1
node=''
for i in range(num):
if i==0:
node=buffer[i]
else:
node=node+'.'+buffer[i]
nodeTemp=[]
nodeTemp = mc.ls(node)
attr = buffer[num]
node = nodeTemp[0]
nodeTemp = mc.listRelatives(node,p=1)
if nodeTemp != None :
parent1 = 1
elif nodeTemp == None :
parent1 = 0
testit =mc.listAnimatable(connects)
# if Val1==Val2:
# testit2=mc.keyframe(chan,q=1)
# else:
testit2=mc.keyframe(chan,q=1,time=(Val1,Val2))
if testit and testit2:
evalme = mc.getAttr(chan + '.preInfinity')
if evalme == 0:
preIn = 'constant'
if evalme == 1:
preIn = 'linear'
if evalme == 2:
preIn = 'constant'
if evalme == 3:
preIn = 'cycle'
if evalme == 4:
preIn = 'cycleRelative'
if evalme == 5:
preIn = 'oscillate'
evalme = mc.getAttr (chan + '.postInfinity')
if evalme == 0:
postIn = 'constant'
if evalme == 1:
postIn = 'linear'
if evalme == 2:
postIn = 'constant'
if evalme == 3:
postIn = 'cycle'
if evalme == 4:
postIn = 'cycleRelative'
if evalme == 5:
postIn = 'oscillate'
evalme = mc.getAttr (chan + '.weightedTangents')
weighted = evalme
fileID.write('anim ' + attr + ' ' + attr + ' ' + node + ' ' + str(parent1) + ' 0 0\n' )
fileID.write('animData \n')
fileID.write(' weighted ' + str(weighted) + '\n')
fileID.write(' preInfinity ' + preIn + '\n')
fileID.write(' postInfinity ' + postIn + '\n')
fileID.write(' keys {\n')
breakDown=[]
# if Val1==Val2:
# keys = mc.keyframe(chan,q=1)
# values = mc.keyframe (chan,q=1,vc=1)
# inTan = mc.keyTangent(chan,q=1,itt=1)
# outTan = mc.keyTangent(chan,q=1,ott=1)
# tanLock= mc.keyTangent (chan,q=1,lock=1)
# weightLock=mc.keyTangent(chan,q=1,weightLock=1)
# breakDown= mc.keyframe (chan,q=1,breakdown=1)
# inAngle= mc.keyTangent (chan,q=1,inAngle=1)
# outAngle= mc.keyTangent (chan,q=1,outAngle=1)
# inWeight= mc.keyTangent (chan,q=1,inWeight=1)
# outWeight= mc.keyTangent (chan,q=1,outWeight=1)
# else:
keys = mc.keyframe(chan,q=1,time=(Val1,Val2))
values = mc.keyframe (chan,q=1,vc=1,time=(Val1,Val2))
inTan = mc.keyTangent(chan,q=1,itt=1,time=(Val1,Val2))
outTan = mc.keyTangent(chan,q=1,ott=1,time=(Val1,Val2))
tanLock= mc.keyTangent (chan,q=1,lock=1,time=(Val1,Val2))
weightLock=mc.keyTangent(chan,q=1,weightLock=1,time=(Val1,Val2))
breakDown= mc.keyframe (chan,q=1,breakdown=1,time=(Val1,Val2))
inAngle= mc.keyTangent (chan,q=1,inAngle=1,time=(Val1,Val2))
outAngle= mc.keyTangent (chan,q=1,outAngle=1,time=(Val1,Val2))
inWeight= mc.keyTangent (chan,q=1,inWeight=1,time=(Val1,Val2))
outWeight= mc.keyTangent (chan,q=1,outWeight=1,time=(Val1,Val2))
for i in range (len(keys)):
bd=0
if breakDown!=None:
for bd_item in breakDown:
if bd_item == keys[i]:
bd=1
fileID.write(' ' + str(keys[i]) + ' ' + str(values[i])+ ' ' + str(inTan[i]) + ' ' + str(outTan[i]) + ' ' + str(tanLock[i]) + ' ' + str(weightLock[i]) + ' ' + str(bd))
if inTan[i]=='fixed':
fileID.write(' ' + str(inAngle[i]) + ' ' + str(inWeight[i]))
if outTan[i]=='fixed':
fileID.write(' ' + str(outAngle[i]) + ' ' + str(outWeight[i]))
fileID.write('\n')
fileID.write(' }\n}\n')
staticChans = mc.listAnimatable(item)
for staticChan in staticChans:
curAttr = staticChan
curattr = curAttr.split('.')
num = len(curattr)
buffer=curattr
num = num - 1
node=''
for i in range(num):
if i==0:
node=buffer[i]
else:
node=node+'.'+buffer[i]
nodeTemp=[]
nodeTemp = mc.ls(node)
attr = buffer[num]
node = nodeTemp[0]
nodeTemp = mc.listRelatives(node,p=1)
if nodeTemp != None :
parent1 = 1
elif nodeTemp == None :
parent1 = 0
staticChan = (node + "." + attr)
testit = mc.keyframe (staticChan,q=1)
connected = mc.listConnections(staticChan,d=0)
if not testit and not connected :
fileID.write('static ' + attr + ' ' + attr + ' ' + node + ' ' + str(parent1) + ' ' + str(mc.getAttr(staticChan)) + '\n')
fileID.write('End of Anim')
fileID.close()
mc.select(clear = True)
for item in sel_obj:
mc.select(item, toggle = True)
print "\nDone Writing Animation Curves\n"
#print frm_rang
mc.shelfButton(Anim_newname,i1=newAnimIconFile,w=110,h=80,l=Anim_newname,bgc=(.2,.6,.3),st='iconAndTextVertical',p=(seltab5),c=partial(Importanim,animpath2))
Refresh_UI(savepathini)
mc.shelfTabLayout('tabs',e=1,st=Animation)
mc.shelfTabLayout('Animation',e=1,st=seltab5)
animposewinclose()
def writeAnimFile(animFile, animNodes=[]):
'''
Write pose data to file.
@param poseFile: Destination pose file
@type poseFile: str
@param poseNodes: List of nodes to save pose data for
@type poseNodes: list
'''
# Initialize First Frame Value
firstKeyTime = 1000000
# Open File for Writing
print('\nWriting Animation Curves...\n')
f = open(animFile, 'w')
f.write('# Generated by VFX animLib\n#\n')
f.write('# dkAnim written by Daniel Kramer MOD by Mark Behm\n#\n')
f.write('# Source workfile: ' + mc.file(q=True, sn=True) + '\n#\n\n')
for item in animNodes:
# Get Animated Channels
channels = mc.listConnections(item,
s=True,
d=False,
p=True,
c=True,
type='animCurve')
for i in range(0, len(channels), 2):
chan = mc.ls(channels[i], o=True)[0]
node = mc.ls(channels[i + 1], o=True)[0]
attr = channels[i + 1].split('.')[-1]
attrName = channels[i + 1]
parent = 0
nodeParent = mc.listRelatives(node, p=True)
if nodeParent: parent = 1
# Infinity
infValue = [
'constant', 'linear', 'constant', 'cycle', 'cycleRelative',
'oscillate'
]
preIn = infValue[mc.getAttr(chan + '.preInfinity')]
postInf = infValue[mc.getAttr(chan + '.postInfinity')]
# Weighted
weighted = int(mc.getAttr(chan + '.weightedTangents'))
# ====================
# - Write Curve Data -
# ====================
f.write('anim ' + attr + ' ' + attr + ' ' + node + ' ' + parent +
' 0 0;\n')
f.write('animData {\n')
f.write(' weighted ' + str(weighted) + ';\n')
f.write(' preInfinity ' + preIn + ';\n')
f.write(' postInfinity ' + postIn + ';\n')
f.write(' keys {\n')
# ==================
# - Write Key Data -
# ==================
# Get Key Data
keys = mc.keyframe(chan, q=True)
values = mc.keyframe(chan, q=True, vc=True)
inTan = mc.keyTangent(chan, q=True, itt=True)
outTan = mc.keyTangent(chan, q=True, ott=True)
tanLock = mc.keyTangent(chan, q=True, lock=True)
weightLock = mc.keyTangent(chan, q=True, weightLock=True)
breakDown = mc.keyframe(chan, q=True, breakdown=True)
inAngle = mc.keyTangent(chan, q=True, inAngle=True)
outAngle = mc.keyTangent(chan, q=True, outAngle=True)
inWeight = mc.keyTangent(chan, q=True, inWeight=True)
outWeight = mc.keyTangent(chan, q=True, outWeight=True)
# Write Key Data
for i in range(len(keys)):
# Get Breakdown Status
bd = int(bool(keys[i] in breakDown))
# First Key
if keys[i] < firstKeyTime: firstKeyTime = keys[i]
# Write Key Data to File
f.write(' ' + str(keys[i]) + ' ' + str(values[i]) + ' ' +
inTan[i] + ' ' + outTan[i] + ' ' + str(tanLock[i]) +
' ' + str(weightLock[i]) + ' ' + str(bd))
if inTan[i] == 'fixed':
f.write(' ' + str(inAngle[i]) + ' ' + str(inWeight[i]))
if outTan[i] == 'fixed':
f.write(' ' + str(outAngle[i]) + ' ' + str(outWeight[i]))
f.write(';\n')
f.write(' }\n}\n')
# =========================
# - Write Static Channels -
# =========================
staticChans = mc.listAnimatable(item)
for staticChan in staticChans:
node = mc.ls(staticChan, o=True)[0]
attr = staticChan.split('.')[-1]
parent = 0
nodeParent = mc.listRelatives(node, p=True)
if nodeParent: parent = 1
#staticChan = node+'.'+attr
keys = mc.keyframe(staticChan, q=True)
connected = mc.listConnections(staticChan, s=True)
if not keys and not connected:
f.write('static ' + attr + ' ' + attr + ' ' + node + ' ' +
parent + ' ' + str(mc.getAttr(staticChan)) + '\n')
# Record First Key Offset
f.write('firstKeyTime ' + str(firstKeyTime))
# Close File
f.close()
# =================
# - Return Result -
# =================
print '\nDone Writing Animation Curves\n'
return animFile
def recordStop(self):
cmds.play(state=False)
self.removeAttrsToRecord(\
[attr.split('.')[-1] for attr in cmds.listAnimatable(cmds.ls(sl=True))])
def writeAnimFile(animFile,animNodes=[]):
'''
Write pose data to file.
@param poseFile: Destination pose file
@type poseFile: str
@param poseNodes: List of nodes to save pose data for
@type poseNodes: list
'''
# Initialize First Frame Value
firstKeyTime = 1000000
# Open File for Writing
print('\nWriting Animation Curves...\n')
f = open(animFile,'w')
f.write('# Generated by VFX animLib\n#\n')
f.write('# dkAnim written by Daniel Kramer MOD by Mark Behm\n#\n')
f.write('# Source workfile: '+mc.file(q=True,sn=True)+'\n#\n\n')
for item in animNodes:
# Get Animated Channels
channels = mc.listConnections(item,s=True,d=False,p=True,c=True,type='animCurve')
for i in range(0,len(channels),2):
chan = mc.ls(channels[i],o=True)[0]
node = mc.ls(channels[i+1],o=True)[0]
attr = channels[i+1].split('.')[-1]
attrName = channels[i+1]
parent = 0
nodeParent = mc.listRelatives(node,p=True)
if nodeParent: parent = 1
# Infinity
infValue = ['constant','linear','constant','cycle','cycleRelative','oscillate']
preIn = infValue[mc.getAttr(chan+'.preInfinity')]
postInf = infValue[mc.getAttr(chan+'.postInfinity')]
# Weighted
weighted = int(mc.getAttr(chan+'.weightedTangents'))
# ====================
# - Write Curve Data -
# ====================
f.write('anim '+attr+' '+attr+' '+node+' '+parent+' 0 0;\n')
f.write('animData {\n')
f.write(' weighted '+str(weighted)+';\n')
f.write(' preInfinity '+preIn+';\n')
f.write(' postInfinity '+postIn+';\n')
f.write(' keys {\n')
# ==================
# - Write Key Data -
# ==================
# Get Key Data
keys = mc.keyframe(chan,q=True)
values = mc.keyframe(chan,q=True,vc=True)
inTan = mc.keyTangent(chan,q=True,itt=True)
outTan = mc.keyTangent(chan,q=True,ott=True)
tanLock = mc.keyTangent(chan,q=True,lock=True)
weightLock = mc.keyTangent(chan,q=True,weightLock=True)
breakDown = mc.keyframe(chan,q=True,breakdown=True)
inAngle = mc.keyTangent(chan,q=True,inAngle=True)
outAngle = mc.keyTangent(chan,q=True,outAngle=True)
inWeight = mc.keyTangent(chan,q=True,inWeight=True)
outWeight = mc.keyTangent(chan,q=True,outWeight=True)
# Write Key Data
for i in range(len(keys)):
# Get Breakdown Status
bd = int(bool(keys[i] in breakDown))
# First Key
if keys[i] < firstKeyTime: firstKeyTime = keys[i]
# Write Key Data to File
f.write(' '+str(keys[i])+' '+str(values[i])+' '+inTan[i]+' '+outTan[i]+' '+str(tanLock[i])+' '+str(weightLock[i])+' '+str(bd))
if inTan[i] == 'fixed': f.write(' '+str(inAngle[i])+' '+str(inWeight[i]))
if outTan[i] == 'fixed': f.write(' '+str(outAngle[i])+' '+str(outWeight[i]))
f.write(';\n')
f.write(' }\n}\n')
# =========================
# - Write Static Channels -
# =========================
staticChans = mc.listAnimatable(item)
for staticChan in staticChans:
node = mc.ls(staticChan,o=True)[0]
attr = staticChan.split('.')[-1]
parent = 0
nodeParent = mc.listRelatives(node,p=True)
if nodeParent: parent = 1
#staticChan = node+'.'+attr
keys = mc.keyframe(staticChan,q=True)
connected = mc.listConnections(staticChan,s=True)
if not keys and not connected:
f.write('static '+attr+' '+attr+' '+node+' '+parent+' '+str(mc.getAttr(staticChan))+'\n')
# Record First Key Offset
f.write('firstKeyTime '+str(firstKeyTime))
# Close File
f.close()
# =================
# - Return Result -
# =================
print '\nDone Writing Animation Curves\n'
return animFile
def slice_curves():
sel = cmds.ls(sl=1)
if not sel: return None
objects_to_skip = []
# Does the object have a key on it to begin with?
for obj in sel:
shape_keyables = []
shapes = cmds.listRelatives(obj, shapes=True)
for shape in shapes:
# shape = 'ARCT_WelderBot_01_rig:backFoot_01FK_L_CTRLShape1'
keyCountShape = cmds.keyframe(shape, q=True, kc=True, shape=True)
found = cmds.listAnimatable(shape) or []
if found and not keyCountShape:
shape_keyables.append(shape)
keyCountCtrl = cmds.keyframe(obj, q=True, kc=True, shape=False)
if shape_keyables:
keyCountShape = cmds.keyframe(shape_keyables, q=True, kc=True, shape=True)
if keyCountCtrl == 0 and keyCountShape > 0: # Keys on the shape node but not on the ctrl
cmds.setKeyframe(obj, breakdown=False, hierarchy='none', controlPoints=False, shape=False)
objects_to_skip.append(obj)
if keyCountCtrl == 0 and keyCountShape == 0:
cmds.setKeyframe(obj, breakdown=False, hierarchy='none', controlPoints=False, shape=True)
objects_to_skip.append(obj)
if keyCountCtrl > 0 and keyCountShape == 0:
for shape in shape_keyables:
cmds.setKeyframe(shape, breakdown=False, hierarchy='none', controlPoints=False, shape=True)
else:
keyCountCtrl = cmds.keyframe(obj, q=True, kc=True, shape=False)
if not keyCountCtrl:
cmds.setKeyframe(obj, breakdown=False, hierarchy='none', controlPoints=False, shape=False)
# Get selected curves in GE
selectedCurves = cmds.keyframe(selected=True, q=True, name=True) or [] # return curves of selected keys
if selectedCurves:
cmds.setKeyframe(selectedCurves, insert=True)
return True
# Get selection from GE_outliner
# ge_outliner_selection = mel.eval("string $temp[] = `selectionConnection -q -object graphEditor1FromOutliner`;")
# if ge_outliner_selection:
# cmds.setKeyframe(ge_outliner_selection, insert=True)
# return True
# Get selection from channelbox
channelbox_selection = []
cb_attr_main, cb_attr_shapes = _get_selected_channels()
if cb_attr_main:
for obj in sel:
for attr in cb_attr_main:
if cmds.objExists(obj + "." + attr):
channelbox_selection.append(obj + "." + attr)
if cb_attr_shapes:
for obj in sel:
shape_nodes = cmds.listRelatives(obj, shapes=True)
for shape_node in shape_nodes:
for attr in cb_attr_shapes:
if cmds.objExists(shape_node + "." + attr):
channelbox_selection.append(shape_node + "." + attr)
if channelbox_selection:
for attr in channelbox_selection:
if cmds.keyframe(attr, q=True, kc=True):
cmds.setKeyframe(channelbox_selection, insert=True)
else:
cmds.setKeyframe(channelbox_selection)
return True
# Ok, maybe no selection. Just insert all the ones we didn't initially do a setkey
for obj in sel:
if obj not in objects_to_skip:
cmds.setKeyframe(obj, insert=True, shape=True)
'''
def recordStop(self):
cmds.play(state=False)
self.removeAttrsToRecord([attr.split('.')[-1]
for attr in cmds.listAnimatable(cmds.ls(sl=True))])
def channelBoxCommand(self, operation, *args):
channelSel = cmds.channelBox(self.cb1, query=True, sma=True)
objSel = cmds.ls(sl=True)
# reset default channels
transformChannels = ["translateX", "translateY", "translateZ", "rotateX", "rotateY", "rotateZ"]
scaleChannels = ["scaleX", "scaleY", "scaleZ", "visibility"]
if (operation == "-channelEditor"):
mel.eval("lockingKeyableWnd;")
elif (operation == "-setAllToZero"):
for obj in objSel:
for channel in transformChannels:
cmds.setAttr(obj + "." + channel, 0)
for channel in scaleChannels:
cmds.setAttr(obj + "." + channel, 1)
# reset created channels
for obj in objSel:
createdChannels = []
allChannels = cmds.listAnimatable(obj)
for channel in allChannels:
attrName = channel.split(".")[-1]
createdChannels.append(attrName)
channels = list(set(createdChannels) - set(transformChannels) - set(scaleChannels))
for channel in channels:
defaultValue = cmds.addItem(obj + "." + channel, query=True, dv=True)
cmds.setAttr(obj + "." + channel, defaultValue)
elif (operation == "-keySelected"):
print 'Channel Box', channelSel, objSel
for obj in objSel:
for channel in channelSel:
cmds.setKeyframe(obj + "." + channel)
elif (operation == "-keyAll"):
for obj in objSel:
allChannels = cmds.listAnimatable(obj)
cmds.select(obj)
for channel in allChannels:
cmds.setKeyframe(channel)
elif (operation == "-breakDownSelected"):
for obj in objSel:
for channel in channelSel:
cmds.setKeyframe(obj + "." + channel, breakdown=True)
elif (operation == "-breakDownAll"):
for obj in objSel:
allChannels = cmds.listAnimatable(obj)
cmds.select(obj)
for channel in allChannels:
cmds.setKeyframe(channel, breakdown=True)
elif (operation == "-cutSelected") or (operation == "-deleteSelected"):
for obj in objSel:
for channel in channelSel:
cmds.cutKey(obj, at=channel)
elif (operation == "-copySelected"):
for obj in objSel:
for channel in channelSel:
cmds.copyKey(obj, at=channel)
elif (operation == "-pasteSelected"):
for obj in objSel:
for channel in channelSel:
cmds.pasteKey(obj, connect=True, at=channel)
elif (operation == "-breakConnection"):
for obj in objSel:
for channel in channelSel:
attr = obj + "." + channel
mel.eval("source channelBoxCommand; CBdeleteConnection \"%s\"" % attr)
elif (operation == "-lockSelected"):
for obj in objSel:
for channel in channelSel:
cmds.setAttr(obj + "." + channel, lock=True)
elif (operation == "-unlockSelected"):
for obj in objSel:
for channel in channelSel:
cmds.setAttr(obj + "." + channel, lock=False)
elif (operation == "-hideSelected"):
for obj in objSel:
for channel in channelSel:
cmds.setAttr(obj + "." + channel, keyable=False, channelBox=False)
elif (operation == "-lockAndHideSelected"):
for obj in objSel:
for channel in channelSel:
cmds.setAttr(obj + "." + channel, lock=True)
cmds.setAttr(obj + "." + channel, keyable=False, channelBox=False)
elif (operation == "-unhideHided"):
# channelBoxChannels = transformChannels + scaleChannels
for obj in objSel:
# for channel in channelBoxChannels:
# cmds.setAttr( obj + "." + channel, l=False, k=True )
# get locked channel
lockChannels = cmds.listAttr(obj, locked=True)
if lockChannels == None:
message = "nothing is locked"
self.warningPopup(message)
break
else:
for channel in lockChannels:
cmds.setAttr(obj + "." + channel, keyable=True, channelBox=True)
elif (operation == "-showDefault"):
for obj in objSel:
defaultChannel = ["tx", "ty", "tz", "rx", "ry", "rz", "sx", "sy", "sz"]
for channel in defaultChannel:
cmds.setAttr(obj + "." + channel, k=True, cb=True)
elif (operation == "-expression"):
mel.eval('expressionEditor EE "" "";')
elif (operation == "-unhideHided"):
mel.eval('SetDrivenKeyOptions;')
elif (operation == "-deleteAttribute"):
for obj in objSel:
for channel in channelSel:
cmds.deleteAttr(obj, at=channel)
elif (operation == "-about"):
cmds.confirmDialog(t="About DAMG Controller Maker",
m=("Thank you for using my script :D\n"
"Made by Do Trinh - JimJim\n"
"Please feel free to give your feedback\n"
"Email me: [email protected]\n"),
b="Close")
def extract_world_space_data():
'''
Extracts the world space data from the objects that were loaded into selections
'''
# Double check target availability
available_ctrls = []
for obj in gt_world_space_baker_settings.get('stored_elements'):
if cmds.objExists(obj):
available_ctrls.append(obj)
# Store Current Time
original_time = cmds.currentTime(q=True)
# Last Validation
is_valid = True
if available_ctrls == 0:
is_valid = False
cmds.warning(
'Loaded objects couldn\'t be found. Please review your settings and try again'
)
elif gt_world_space_baker_settings.get(
'start_time_range') >= gt_world_space_baker_settings.get(
'end_time_range'):
is_valid = False
cmds.warning(
'Starting frame can\'t be higher than ending frame. Review your animation range settings and try again.'
)
# Extract Keyframes:
if is_valid:
for obj in available_ctrls:
attributes = cmds.listAnimatable(obj)
needs_ws_transforms = True
frame_translate_values = []
frame_rotate_values = []
for attr in attributes:
try:
# short_attr = attr.split('.')[-1]
# frames = cmds.keyframe(obj, q=1, at=short_attr)
# values = cmds.keyframe(obj, q=1, at=short_attr, valueChange=True)
# in_angle_tangent = cmds.keyTangent(obj, at=short_attr, inAngle=True, query=True)
# out_angle_tanget = cmds.keyTangent(obj, at=short_attr, outAngle=True, query=True)
# is_locked = cmds.keyTangent(obj, at=short_attr, weightLock=True, query=True)
# in_weight = cmds.keyTangent(obj, at=short_attr, inWeight=True, query=True)
# out_weight = cmds.keyTangent(obj, at=short_attr, outWeight=True, query=True)
# in_tangent_type = cmds.keyTangent(obj, at=short_attr, inTangentType=True, query=True)
# out_tangent_type = cmds.keyTangent(obj, at=short_attr, outTangentType=True, query=True)
# gt_world_space_baker_anim_storage['{}.{}'.format(obj, short_attr)] = zip(frames, values, in_angle_tangent, out_angle_tanget, is_locked, in_weight, out_weight, in_tangent_type, out_tangent_type)
# WS Values # Translate and Rotate for the desired frame range
if 'translate' in attr or 'rotate' in attr:
if needs_ws_transforms:
cmds.currentTime(
gt_world_space_baker_settings.get(
'start_time_range'))
for index in range(
gt_world_space_baker_settings.get(
'end_time_range') -
gt_world_space_baker_settings.get(
'start_time_range') + 1):
frame_translate_values.append([
cmds.currentTime(q=True),
cmds.xform(obj, ws=True, q=True, t=True)
])
frame_rotate_values.append([
cmds.currentTime(q=True),
cmds.xform(obj, ws=True, q=True, ro=True)
])
cmds.currentTime(cmds.currentTime(q=True) + 1)
needs_ws_transforms = False
if attr.split('.')[-1].startswith('translate'):
gt_world_space_baker_anim_storage['{}.{}'.format(
obj, 'translate')] = frame_translate_values
if attr.split('.')[-1].startswith('rotate'):
gt_world_space_baker_anim_storage['{}.{}'.format(
obj, 'rotate')] = frame_rotate_values
# if attr.endswith('X'):
# channel_index = 0
# channel_str = 'X'
# elif attr.endswith('Y'):
# channel_index = 1
# channel_str = 'Y'
# elif attr.endswith('Z'):
# channel_index = 2
# channel_str = 'Z'
# if attr.split('.')[-1].startswith('translate'):
# desired_data = []
# for frame_translate in frame_translate_values:
# desired_data.append([frame_translate[0], frame_translate[1][channel_index]])
# gt_world_space_baker_anim_storage['{}.{}'.format(obj, 'translate' + channel_str)] = desired_data
# if attr.split('.')[-1].startswith('rotate'):
# desired_data = []
# for frame_translate in frame_translate_values:
# desired_data.append([frame_translate[0], frame_translate[1][channel_index]])
# gt_world_space_baker_anim_storage['{}.{}'.format(obj, 'rotate' + channel_str)] = desired_data
except:
pass # 0 keyframes
cmds.currentTime(original_time)
return True
def writeAnimFile(animFile, animNodes=[]):
"""
Write pose data to file.
@param poseFile: Destination pose file
@type poseFile: str
@param poseNodes: List of nodes to save pose data for
@type poseNodes: list
"""
# Initialize First Frame Value
firstKeyTime = 1000000
# Open File for Writing
print ("\nWriting Animation Curves...\n")
f = open(animFile, "w")
f.write("# Generated by VFX animLib\n#\n")
f.write("# dkAnim written by Daniel Kramer MOD by Mark Behm\n#\n")
f.write("# Source workfile: " + cmds.file(q=True, sn=True) + "\n#\n\n")
for item in animNodes:
# Get Animated Channels
channels = cmds.listConnections(item, s=True, d=False, p=True, c=True, type="anicmdsurve")
for i in range(0, len(channels), 2):
chan = cmds.ls(channels[i], o=True)[0]
node = cmds.ls(channels[i + 1], o=True)[0]
attr = channels[i + 1].split(".")[-1]
attrName = channels[i + 1]
parent = 0
nodeParent = cmds.listRelatives(node, p=True)
if nodeParent:
parent = 1
# Infinity
infValue = ["constant", "linear", "constant", "cycle", "cycleRelative", "oscillate"]
preIn = infValue[cmds.getAttr(chan + ".preInfinity")]
postInf = infValue[cmds.getAttr(chan + ".postInfinity")]
# Weighted
weighted = int(cmds.getAttr(chan + ".weightedTangents"))
# ====================
# - Write Curve Data -
# ====================
f.write("anim " + attr + " " + attr + " " + node + " " + parent + " 0 0;\n")
f.write("animData {\n")
f.write(" weighted " + str(weighted) + ";\n")
f.write(" preInfinity " + preIn + ";\n")
f.write(" postInfinity " + postIn + ";\n")
f.write(" keys {\n")
# ==================
# - Write Key Data -
# ==================
# Get Key Data
keys = cmds.keyframe(chan, q=True)
values = cmds.keyframe(chan, q=True, vc=True)
inTan = cmds.keyTangent(chan, q=True, itt=True)
outTan = cmds.keyTangent(chan, q=True, ott=True)
tanLock = cmds.keyTangent(chan, q=True, lock=True)
weightLock = cmds.keyTangent(chan, q=True, weightLock=True)
breakDown = cmds.keyframe(chan, q=True, breakdown=True)
inAngle = cmds.keyTangent(chan, q=True, inAngle=True)
outAngle = cmds.keyTangent(chan, q=True, outAngle=True)
inWeight = cmds.keyTangent(chan, q=True, inWeight=True)
outWeight = cmds.keyTangent(chan, q=True, outWeight=True)
# Write Key Data
for i in range(len(keys)):
# Get Breakdown Status
bd = int(bool(keys[i] in breakDown))
# First Key
if keys[i] < firstKeyTime:
firstKeyTime = keys[i]
# Write Key Data to File
f.write(
" "
+ str(keys[i])
+ " "
+ str(values[i])
+ " "
+ inTan[i]
+ " "
+ outTan[i]
+ " "
+ str(tanLock[i])
+ " "
+ str(weightLock[i])
+ " "
+ str(bd)
)
if inTan[i] == "fixed":
f.write(" " + str(inAngle[i]) + " " + str(inWeight[i]))
if outTan[i] == "fixed":
f.write(" " + str(outAngle[i]) + " " + str(outWeight[i]))
f.write(";\n")
f.write(" }\n}\n")
# =========================
# - Write Static Channels -
# =========================
staticChans = cmds.listAnimatable(item)
for staticChan in staticChans:
node = cmds.ls(staticChan, o=True)[0]
attr = staticChan.split(".")[-1]
parent = 0
nodeParent = cmds.listRelatives(node, p=True)
if nodeParent:
parent = 1
# staticChan = node+'.'+attr
keys = cmds.keyframe(staticChan, q=True)
connected = cmds.listConnections(staticChan, s=True)
if not keys and not connected:
f.write(
"static "
+ attr
+ " "
+ attr
+ " "
+ node
+ " "
+ parent
+ " "
+ str(cmds.getAttr(staticChan))
+ "\n"
)
# Record First Key Offset
f.write("firstKeyTime " + str(firstKeyTime))
# Close File
f.close()
# =================
# - Return Result -
# =================
print "\nDone Writing Animation Curves\n"
return animFile
