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OpenPoseToRig.py
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OpenPoseToRig.py
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bl_info = {
"name": "OpenPose To Rig",
"description": "Tools for moving openpose motions to a rig",
"author": "Nick Keeline",
"version": (0, 0, 0),
"blender": (2, 83, 0),
"location": "3D View > Tools",
"warning": "", # used for warning icon and text in addons panel
"wiki_url": "",
"tracker_url": "",
"category": "Motion Capture"
}
import bpy
import json
import os.path
from os import path
import math
import mathutils
####################################################################################
####################################################################################
####################################################################################
# Functions for converting and manipulation of points.
####################################################################################
####################################################################################
####################################################################################
def combineRReliability(pt1, pt2):
rel1 = pt1[2]
rel2 = pt2[2]
if rel1 < rel2:
relOut = rel1
else:
relOut = rel2
return relOut
def GetPoint (Array, index):
baseIndex = index*3
x = float(Array[baseIndex])
y = float(Array[baseIndex + 1])
reliability = float(Array[baseIndex + 2])
return [x,y,reliability]
#this equation rotates the a point around a center, needed to take head tilt out of facial capture.
def rotatePoint(point, center, angle):
#got equation from https://www.gamefromscratch.com/post/2012/11/24/GameDev-math-recipes-Rotating-one-point-around-another-point.aspx
angle = math.radians(angle ) #Convert to radians
rotatedX = math.cos(angle) * (point[0] - center[0]) - math.sin(angle) * (point[1]-center[1]) + center[0];
rotatedY = math.sin(angle) * (point[0] - center[0]) + math.cos(angle) * (point[1] - center[1]) + center[1];
return [rotatedX,rotatedY,point[2]]
def AverageTwoPoints(pt1, pt2):
avgX = (pt1[0] + pt2[0])/2
avgY = (pt1[1] + pt2[1])/2
return [avgX, avgY,combineRReliability(pt1,pt2)]
def DifferenceBetweenPoint(pt1, pt2):
diffX = (pt1[0] - pt2[0])
diffY = (pt1[1] - pt2[1])
return [diffX, diffY,combineRReliability(pt1,pt2)]
def InverseXandY(pt):
x = pt[0]*-1
y = pt[1]*-1
return [x, y, pt[2]]
def InverseX(pt):
x = pt[0]*-1
y = pt[1]
return [x, y, pt[2]]
def multiply(pt, val):
x = pt[0]*val
y = pt[1]*val
return [x, y, pt[2]]
####################################################################################
####################################################################################
####################################################################################
# This class get's data from open pose data provided and has a bunch of methods that
#get bone angles and position used to postion a bone or get another bones rotation.
####################################################################################
####################################################################################
####################################################################################
class PersonJSONData:
def __init__(self, pose, face, EarLobeToEarLobedistanceInBlenderUnits, TieEyelidsTogether):
self.poseStart = pose
self.faceStart = face
self.poseCurrent = pose
self.faceCurrent = face
self.TieEyelidsTogether = TieEyelidsTogether
#distance is distance between ears
self.distancBetweenEars = abs(GetPoint(pose, 18)[0] - GetPoint(pose, 18)[1])
self.StartNosePosition = GetPoint(pose, 0)
self.StartFaceNosePosition = GetPoint(face, 30)
self.StartFaceChinPosition = GetPoint(face, 8)
self.StartRightEyePosition = GetPoint(pose, 15)
self.StartLeftEyePosition = GetPoint(pose, 16)
#self.StartRightEyePosition = GetPoint(face, 68)
#self.StartLeftEyePosition = GetPoint(face, 69)
self.LastGoodHeadTilt = 0
self.StartHeadTilt = self.getHeadTiltSideToSide()
self.EarLobeToEarLobedistanceInBlenderUnits = EarLobeToEarLobedistanceInBlenderUnits
def SetCurrentPose(self, pose, face):
self.poseCurrent = pose
self.faceCurrent = face
#given a point return it correct for head tilt at the current point in time.
def GetCurrentPointHeadTiltCorrected(self, Point):
angle = self.getHeadTiltSideToSide()
#point 8 is the nose we rotate around it by the tilt of the head
PointCorrrected = rotatePoint(GetPoint(self.faceCurrent, 8), Point,(angle*-1))
return PointCorrrected
#this method returns a start point corrected for the head tilt at start, good for returning a point
#In Space at start of capture corrected for head tilt at start of capture.
def GetStartPointHeadTiltCorrected(self, Point):
angle = self.StartHeadTilt
#point 8 is the nose we rotate around it by the tilt of the head
PointCorrrected = rotatePoint(GetPoint(self.faceStart, 8), Point,(angle*-1))
return PointCorrrected
def GetDistanceBetweenTwoCurrentPoints(self, Pnt1, Pnt2):
x2 = Pnt2[0]
x1 = Pnt1[0]
y2 = Pnt2[1]
y1 = Pnt1[1]
dist = math.sqrt((x2 - x1)**2 + (y2 - y1)**2)
return dist
def ConvertPixelPointToBlenderUnits(self, pnt):
pntx = pnt[0] * (self.EarLobeToEarLobedistanceInBlenderUnits/self.distancBetweenEars)
pnty = pnt[1] * (self.EarLobeToEarLobedistanceInBlenderUnits/self.distancBetweenEars)
reliability = pnt[2]
return [pntx,pnty,reliability]
def getHeadTiltSideToSide(self):
#We get the tils by taking the angle difference between the left and right years
leftEar = GetPoint(self.poseCurrent, 18)
rightEar = GetPoint(self.poseCurrent, 17)
deltaY = leftEar[1] - rightEar[1]
deltaX = leftEar[0] - rightEar[0]
if leftEar[2] < .1 or rightEar[2] < .1:
tiltOut = self.LastGoodHeadTilt
else:
tilt = math.atan(deltaY/deltaX)
tiltOut = math.degrees(tilt*-1)
self.LastGoodHeadTilt = tiltOut
return tiltOut
def getHeadTiltUpDown(self):
#get the angle by using the nose vertical translation and approximating the distance
#between the nose and the head pivot using the ear to ear distance from the start.
CurrentNosePosition = GetPoint(self.poseCurrent, 0)
deltaY = CurrentNosePosition[1] - self.StartNosePosition[1]
tilt = math.atan(deltaY/self.distancBetweenEars)
return math.degrees(tilt)
def getHeadTiltLeftRight(self):
#get the angle by using the nose horizontal translation and approximating the distance
#between the nose and the head pivot using the ear to ear distance from the start.
CurrentNosePosition = GetPoint(self.poseCurrent, 0)
deltaX = CurrentNosePosition[0] - self.StartNosePosition[0]
tilt = math.atan(deltaX/self.distancBetweenEars)
return math.degrees(tilt)
def getJawTiltUpDown(self):
#To get the jaw tilt up down we rotate the point around the nose by the head tilt angle
#Then we
NoseToJawStartDist = self.GetDistanceBetweenTwoCurrentPoints(GetPoint(self.faceStart, 8),GetPoint(self.faceStart, 30))
NoseToJawCurrentDist = self.GetDistanceBetweenTwoCurrentPoints(GetPoint(self.faceCurrent, 8),GetPoint(self.faceCurrent, 30))
JawDelta = NoseToJawStartDist - NoseToJawCurrentDist
#approximate the distance from the tip of your jaw to it's pivot by taking the distance between the ears and subtracting an eigth
PivottoEndOfJaw = self.distancBetweenEars - .125*self.distancBetweenEars
Jawtilt = math.atan(JawDelta/PivottoEndOfJaw)
return math.degrees(Jawtilt)
#This takes two points and averages them in the start frame and the current frame. It then
def getFacePosition(self, ptnum1, ptnum2, RelativeTo):
ptAvgStart = AverageTwoPoints(GetPoint(self.faceStart, ptnum1),GetPoint(self.faceStart, ptnum2))
ptAvgCurrent = AverageTwoPoints(GetPoint(self.faceCurrent, ptnum1),GetPoint(self.faceCurrent, ptnum2))
if RelativeTo == "LEFTEYE":
ptDiffCurrent = DifferenceBetweenPoint(ptAvgCurrent,GetPoint(self.poseCurrent, 16))
#ptDiffCurrent = DifferenceBetweenPoint(ptAvgCurrent,GetPoint(self.faceCurrent, 69))
ptDiffStart = DifferenceBetweenPoint(ptAvgStart,self.StartLeftEyePosition)
elif RelativeTo == "RIGHTEYE":
ptDiffCurrent = DifferenceBetweenPoint(ptAvgCurrent,GetPoint(self.poseCurrent, 15))
#ptDiffCurrent = DifferenceBetweenPoint(ptAvgCurrent,GetPoint(self.faceCurrent, 68))
ptDiffStart = DifferenceBetweenPoint(ptAvgStart,self.StartRightEyePosition)
elif RelativeTo == "CHIN":
ptDiffCurrent = DifferenceBetweenPoint(ptAvgCurrent,GetPoint(self.faceCurrent, 8))
ptDiffStart = DifferenceBetweenPoint(ptAvgStart,self.StartFaceChinPosition)
elif RelativeTo == "upperlip":
ptDiffCurrent = DifferenceBetweenPoint(ptAvgCurrent,GetPoint(self.faceCurrent, 51))
ptDiffStart = DifferenceBetweenPoint(ptAvgStart,self.StartFaceChinPosition)
else:
ptDiffCurrent = DifferenceBetweenPoint(ptAvgCurrent,GetPoint(self.faceCurrent, 30))
ptDiffStart = DifferenceBetweenPoint(ptAvgStart,self.StartFaceNosePosition)
#StartPos = self.GetStartPointHeadTiltCorrected(ptDiffStart)
#CurrentPos = self.GetCurrentPointHeadTiltCorrected(ptDiffCurrent)
#DeltaPixels = DifferenceBetweenPoint(GetPoint(self.faceStart, ptnum1),GetPoint(self.faceCurrent, ptnum1))
#DeltaPixels = DifferenceBetweenPoint(ptAvgStart, ptAvgCurrent)
DeltaPixels = DifferenceBetweenPoint(ptDiffStart, ptDiffCurrent)
#DeltaPixels = DifferenceBetweenPoint(StartPos,CurrentPos)
return DeltaPixels
def getJawPosition(self, correction, ref):
if ref == 'DEFAULT':
thisref = "NOSE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(8,8, thisref))
return multiply(output, correction)
def getLowerLipCenterPosition(self, correction, ref):
if ref == 'DEFAULT':
thisref = "NOSE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(57,66, thisref))
return multiply(output, correction)
def getLowerLipCenterLeftPosition(self, correction, ref):
if ref == 'DEFAULT':
thisref = "NOSE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(65,65, thisref))
return multiply(output, correction)
def getLowerLipCenterRightPosition(self, correction, ref):
if ref == 'DEFAULT':
thisref = "NOSE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(67,67, thisref))
return multiply(output, correction)
def getUpperLipCenterPosition(self, correction, ref):
if ref == 'DEFAULT':
thisref = "NOSE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(62,62, thisref))
return multiply(output, correction)
def getUpperLipCenterLeftPosition(self, correction, ref):
if ref == 'DEFAULT':
thisref = "NOSE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(52,63, thisref))
return multiply(output, correction)
def getUpperLipCenterRightPosition(self, correction, ref):
if ref == 'DEFAULT':
thisref = "NOSE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(50,61, thisref))
return multiply(output, correction)
def getUpperLipOuterLeftPosition(self, correction, ref):
if ref == 'DEFAULT':
thisref = "NOSE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(63,63, thisref))
return multiply(output, correction)
def getUpperLipOuterRightPosition(self, correction, ref):
if ref == 'DEFAULT':
thisref = "NOSE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(61,61, thisref))
return multiply(output, correction)
def getLowerLipOuterLeftPosition(self, correction, ref):
if ref == 'DEFAULT':
thisref = "NOSE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(65,65, thisref))
return multiply(output, correction)
def getLowerLipOuterRightPosition(self, correction, ref):
if ref == 'DEFAULT':
thisref = "NOSE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(67,67, thisref))
return multiply(output, correction)
def getLipLeftPosition(self, correction, ref):
if ref == 'DEFAULT':
thisref = "NOSE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(54,64, thisref))
return multiply(output, correction)
def getLipRightPosition(self, correction, ref):
if ref == 'DEFAULT':
thisref = "NOSE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(48,60, thisref))
return multiply(output, correction)
def getEyeBrowLeftOuter(self, correction, ref):
if ref == 'DEFAULT':
thisref = "LEFTEYE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(25,26, thisref))
return multiply(output, correction)
def getEyeBrowLeftCenter(self, correction, ref):
if ref == 'DEFAULT':
thisref = "LEFTEYE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(24,24, thisref))
return multiply(output, correction)
def getEyeBrowLeftInner(self, correction, ref):
if ref == 'DEFAULT':
thisref = "LEFTEYE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(22,23, thisref))
return multiply(output, correction)
def getEyeBrowRightOuter(self, correction, ref):
if ref == 'DEFAULT':
thisref = "RIGHTEYE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(17,18, thisref))
return multiply(output, correction)
def getEyeBrowRightCenter(self, correction, ref):
if ref == 'DEFAULT':
thisref = "RIGHTEYE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(19,19, thisref))
return multiply(output, correction)
def getEyeBrowRightInner(self, correction, ref):
if ref == 'DEFAULT':
thisref = "RIGHTEYE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(20,21, thisref))
return multiply(output, correction)
def getEyelidRight(self, correction, ref):
if ref == 'DEFAULT':
thisref = "RIGHTEYE"
else:
thisref = ref
if self.TieEyelidsTogether:
eyeR = self.getFacePosition(37,38, "RIGHTEYE")
eyeL = self.getFacePosition(43,44, "LEFTEYE")
output = self.ConvertPixelPointToBlenderUnits(AverageTwoPoints(eyeR,eyeL))
else:
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(37,38, thisref))
return multiply(output, correction)
def getEyelidLeft(self, correction, ref):
if ref == 'DEFAULT':
thisref = "LEFTEYE"
else:
thisref = ref
if self.TieEyelidsTogether:
eyeR = self.getFacePosition(37,38, "RIGHTEYE")
eyeL = self.getFacePosition(43,44, "LEFTEYE")
output = self.ConvertPixelPointToBlenderUnits(AverageTwoPoints(eyeR,eyeL))
else:
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(43,44, thisref))
return multiply(output, correction)
def getEyelidLowerRight(self, correction, ref):
if ref == 'DEFAULT':
thisref = "RIGHTEYE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(40,41, thisref))
return multiply(output, correction)
def getEyelidLowerLeft(self, correction, ref):
if ref == 'DEFAULT':
thisref = "LEFTEYE"
else:
thisref = ref
output = self.ConvertPixelPointToBlenderUnits(self.getFacePosition(46,47, thisref))
return multiply(output, correction)
####################################################################################
####################################################################################
####################################################################################
#Rig bone mappping data. This is the data on what map to each bone. Each Bone
# can be saved to a file, so this object just contains the bones mapping info only
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class BoneJSONData:
def __init__(SourceBoneLocationName, DestinationBoneName, BoneModificationType, ApplyToX, ApplyToY, DirectionQuatToApplyXandY):
#This is the source from JSON like head_bone that designates where this bone is getting it's information from in the JSON file
self.SourceBoneLocationName = SourceBoneLocationName
#This is the name for the rig bone name.
self.DestinationBoneName = DestinationBoneName
#keyframe type is either 'LOC' for location or 'ROT' for rotation
self.BoneModificationType = BoneModificationType
#boolean true/false saying do you want to apply X (horizontal) data from JSON)
self.ApplyToX = ApplyToX
#boolean true/false saying do you want to apply Y (vertiacl) data from JSON)
self.ApplyToY = ApplyToY
#This quaternion will rotat the bone then translate it in the rotated direction then rotate it back at the end.
self.DirectionQuatToApplyXandY = DirectionQuatToApplyXandY
def GetJSONDataAsString(self):
# a Python object (dict):
DataDictionary = {
"SourceBoneLocationName": self.SourceBoneLocationName,
"DestinationBoneName": self.DestinationBoneName,
"BoneModificationType": self.BoneModificationType,
"ApplyToX": self.ApplyToX,
"ApplyToY": self.ApplyToY,
"DirectionQuatToApplyXandY": self.DirectionQuatToApplyXandY,
}
# convert into JSON:
return json.dumps(DataDictionary)
def SetJSONDataFromSTring(self,JSONString):
# parse JSONString:
y = json.loads(JSONString)
self.SourceBoneLocationName = y["SourceBoneLocationName"]
self.DestinationBoneName = y["DestinationBoneName"]
self.BoneModificationType = y["BoneModificationType"]
self.ApplyToX = y["ApplyToX"]
self.ApplyToY = y["ApplyToY"]
self.DirectionQuatToApplyXandY = y["DirectionQuatToApplyXandY"]
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# This Class is a Bone class for every Bone in the Armature we want to modify
# with the JSON Data Object. Each bone contains an location it belongs to like
# face, body , hand etc and a bone modification type like rotation or
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class BoneToMap:
def __init__(Armature, SourceBoneLocationName, DestinationBoneName, BoneModificationType, BoneDataName, ApplyToX, ApplyToY, ApplyToZ):
#This is the source from JSON like head_bone that designates where this bone is getting it's information from in the JSON file
self.SourceBoneLocationName = SourceBoneLocationName
#This is the destination bone name on the rig to apply the modifications to.
self.BoneName = BoneName
self.Bone = Armature.pose.bones[BoneName]
self.BoneDataName = BoneDataName
#keyframe type is either 'LOC' for location or 'ROT' for rotation
self.BoneModificationType = BoneModificationType
self.ApplyToX = ApplyToX
self.ApplyToY = ApplyToY
self.ApplyToZ = ApplyToZ
def SetBoneLocation(self, X, Y, Z):
if self.ApplyToX:
self.Bone.location.x = X
if self.ApplyToY:
self.Bone.location.y = Y
if self.ApplyToZ:
self.Bone.location.z = Z
def SetBoneRotationEuler(self, X, Y, Z):
self.Bone.rotation_mode = 'XYZ'
self.Bone.rotation_euler = head_angle
def KeyFrame(self):
if BoneModificationType == 'LOC':
self.Bone.keyframe_insert(data_path='location',frame= FinalFrameNumber)
if BoneModificationType == 'ROT':
self.Bone.keyframe_insert(data_path='rotation_euler',frame= FinalFrameNumber)
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# This class Basically calls all other classes and holds an array of bones and operates
# on them with the data object to move the bones and keyframe.
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#class RigModificationProcess:
# def __init__(Rigname, Rig):
# self.RigName = RigName
# self.Rig = Rig
# self.FaceBones = []
# def AddFaceBone(self, DestinationBoneName, BoneModificationType, BoneLocationType):
# NewBone = BoneToMap(DestinationBoneName, BoneModificationType, BoneLocationType)
# self.FaceBones.append(NewBone)
#
#
# def AddBodyBone(self, DestinationBoneName, BoneModificationType, BoneLocationType):
# NewBone = BoneToMap(DestinationBoneName, BoneModificationType, BoneLocationType)
# self.FaceBones.append(NewBone)
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# store properties in the active scene
# ------------------------------------------------------------------------
#DestArmName = "rig"
##Go Into Edit mode and get delta x between earlobes
##we know the pixel distance between ears in open pse so knowing it for the character
##biveus the converation between pixels and blender units.
#EarLobeToEarLobedistanceInBlenderUnits = .178654
#StartFrameNumber = 0
#mouth_KeyFrame_Every_Nth_Frame = 3
#eyes_KeyFrame_Every_Nth_Frame = 15
##number of frames to transfer, make really t
#NumberOfFramesToTransfer = 1400
#keyFrame = True
##eyelids are kind of inaccurate, so let's tie them together if
##your not going ot wink in the video, a little more natrualif true.
#TieEyelidsTogether = True
##If the eyelid moves more than this amount of blender units, we keyframe,
##that way we catch fast blinks, but eliminate jitter in eyelid...
#EyelidBlinkTHreshold = .01
class OpenPoseToRigifySettings(bpy.types.PropertyGroup):
facial_capture: bpy.props.BoolProperty(
name="Facial Capture",
description="As We read in the JSON files do we apply facial capture to the character",
default = True
)
body_capture: bpy.props.BoolProperty(
name="Apply Body Capture",
description="As We read in the JSON files do we apply body capture to the character",
default = True
)
tie_eyelids_together: bpy.props.BoolProperty(
name="Tie Eyelids Together",
description="Ties the characters Eyelids Together, NO WINKING",
default = True
)
number_of_frames_to_apply: bpy.props.IntProperty(
name = "Number of Samples",
description="Number of Samples to read in and apply",
default = 10000,
min = 0,
max = 10000
)
start_frame_to_apply: bpy.props.IntProperty(
name = "Starting Frame",
description="Frame to Apply Motion Capture To",
default = 0,
min = 0,
max = 10000
)
mouth_keyframe_every_n_frames: bpy.props.IntProperty(
name = "Mouth Keyframe Number",
description="Frame to Apply a Keyframe to, 1 is every frame",
default = 3,
min = 1,
max = 100
)
eye_keyframe_every_n_frames: bpy.props.IntProperty(
name = "Eye Keyframe Number",
description="Frame to Apply a Keyframe to, 1 is every frame",
default = 15,
min = 1,
max = 100
)
ear_to_ear_conversion_distance: bpy.props.FloatProperty(
name = "Ear to Ear Distance",
description = "The distance in blender units between each ear of the character",
default = .16,
min = 0.001,
max = 1000.0
)
eyelid_noise_removal_distance: bpy.props.FloatProperty(
name = "Ignore Eyelid Flutter",
description = "Blender Units to ignore eyelid jitter, higher values makes eyelids flutter less.",
default = .01,
min = 0.00001,
precision = 6,
max = 1000.0
)
rig_name: bpy.props.StringProperty(
name="Rig Name",
description="Rig Name to Apply Capture To",
default="",
maxlen=1024
)
first_JSON_file_to_read_in: bpy.props.StringProperty(
name="First JSON Capture File",
description="Choose the first JSON file to read in:",
default="",
maxlen=1024,
subtype='FILE_PATH'
)
bone_mapping_file: bpy.props.StringProperty(
name="Bone Mapping File to Read and Save",
description="Select a File to Read In:",
default="",
maxlen=1024,
subtype='FILE_PATH'
)
#list_index: bpy.props.IntProperty(name = "Index for my_list", default = 0)
#class ListIndex(bpy.types.IntProperty):
#list_index: bpy.props.IntProperty(name = "Index for my_list", default = 0)
# bpy.types.Scene.list_index = IntProperty(name = "Index for my_list", default = 0)
#class MyBoneMapIndex(bpy.types.PropertyGroup):
# use an annotation
#bone_index : bpy.props.IntProperty(name = "Index for my_list", default = 0)
#class MyBoneMapIndex(bpy.types.IntProperty):
# use an annotation
#bpy.props.IntProperty(name = "Index for my_list", default = 0)
class BoneMappingListItem(bpy.types.PropertyGroup):
#"""Group of properties representing a bone mapping from OpenPose to a Rig"""
name : bpy.props.StringProperty()
label : bpy.props.StringProperty()
description : bpy.props.StringProperty()
SourceBoneType: bpy.props.EnumProperty(
name="Type Of Bone",
description="Is this a face, body or hand bone",
items=[ ('FACE', "Face", ""),
('BODY', "Body", ""),
('HAND', "Hand", "")
]
)
SourceBoneLocationNameFace: bpy.props.EnumProperty(
name="Source Bone Name Face",
description="This is the source from JSON like head_bone that designates where this bone is getting it's information from in the JSON file",
items=[ ('head', "head", ""),
('Jaw', "Jaw", ""),
('LowerLipCenter', "LowerLipCenter", ""),
('LowerLipCenterLeft', "LowerLipCenterLeft", ""),
('LowerLipCenterRight', "LowerLipCenterRight", ""),
('UpperLipCenter', "UpperLipCenter", ""),
('UpperLipCenterLeft', "UpperLipCenterLeft", ""),
('UpperLipCenterRight', "UpperLipCenterRight", ""),
('UpperLipOuterLeft', "UpperLipOuterLeft", ""),
('UpperLipOuterRight', "UpperLipOuterRight", ""),
('LowerLipOuterLeft', "LowerLipOuterLeft", ""),
('LowerLipOuterRight', "LowerLipOuterRight", ""),
('LipLeft', "LipLeft", ""),
('LipRight', "LipRight", ""),
('EyeBrowLeftOuter', "EyeBrowLeftOuter", ""),
('EyeBrowLeftCenter', "EyeBrowLeftCenter", ""),
('EyeBrowLeftInner', "EyeBrowLeftInner", ""),
('EyeBrowRightOuter', "EyeBrowRightOuter", ""),
('EyeBrowRightCenter', "EyeBrowRightCenter", ""),
('EyeBrowRightInner', "EyeBrowRightInner", ""),
('EyelidRight', "EyelidRight", ""),
('EyelidLeft', "EyelidLeft", ""),
('EyelidLowerRight', "EyelidLowerRight", ""),
('EyelidLowerLeft', "EyelidLowerLeft", "")
]
)
OpenPoseFaceMovementReference: bpy.props.EnumProperty(
name="Face Reference",
description="This is the reference point on the face the script will calculate offset from. So basically it's the anchor point on the face used to measure distnance from.",
items=[ ('DEFAULT', "Default", ""),
('RIGHTEYE', "Right Eye", ""),
('LEFTEYE', "Left Eye", ""),
('NOSE', "Nose", ""),
('CHIN', "Chin", "")
]
)
SourceBoneLocationNameBody: bpy.props.EnumProperty(
name="Source Bone Name Body",
description="This is the source from JSON like head_bone that designates where this bone is getting it's information from in the JSON file",
items=[ ('CHEST', "Chest", ""),
('BICEPRIGHT', "Bicep Right", ""),
('FOREARMRIGHT', "ForeArm Right", "")
]
)
SourceBoneLocationNameHand: bpy.props.EnumProperty(
name="Source Bone Name Hand",
description="This is the source from JSON like head_bone that designates where this bone is getting it's information from in the JSON file",
items=[ ('INDEXTIP', "Index Tip", ""),
('INDEXCENTER', "Index Center", ""),
('INDEXBASE', "Index Base", ""),
('PALM', "Palm", "")
]
)
DestinationBoneName: bpy.props.StringProperty(
name="Destination Bone Name",
description="This is the name for the rig bone name.",
default="",
maxlen=1024
)
BoneModificationType: bpy.props.EnumProperty(
name="Bone Modification Type",
description="Translate the bone method either location or rotation",
items=[ ('LOC', "Location", ""),
('ROT', "Rotation", ""),
]
)
BoneGain: bpy.props.FloatProperty(
name="Bone Gain",
description="The amount of gain to apply to the bone, values greater than one make it move more.",
default = 1
)
ApplyToX: bpy.props.BoolProperty(
name="Apply Horizontal",
description="Applies the horizontal translation or rotatiation of the openpose points to the bone",
default = True
)
BoneHorizontalAxis: bpy.props.EnumProperty(
name="Horizontal Axis",
description="Axis to Apply horizontal translation or rotation to.",
items=[ ('PLUSX', "+X", ""),
('PLUSY', "+Y", ""),
('PLUSZ', "+Z", ""),
('NEGX', "-X", ""),
('NEGY', "-Y", ""),
('NEGZ', "-Z", "")
]
)
ApplyTranslationAlongMoreAxisHorizontal: bpy.props.BoolProperty(
name="Translate along more Axis Horizontal",
description="This will take the translation along the axis above selected and move the other two axis proportionally by an amount",
default = False
)
TranslationAlongMoreAxisHorizontal: bpy.props.FloatVectorProperty(
name="Move other axis Horizontally",
description="Move the bone in the direction you want it to go and put it's x, y and z in here to have it move in this direction when openpose horizontal motion occurs",
subtype = 'TRANSLATION',
unit = 'LENGTH',
default = (0.0, 0.0, 0.0),
size = 3
)
ApplyToY: bpy.props.BoolProperty(
name="Apply Vertical",
description="Applies the vertical translation or rotatiation of the openpose points to the bone",
default = True
)
BoneVerticalAxis: bpy.props.EnumProperty(
name="Vertical Axis",
description="Axis to Apply vertical translation or rotation to.",
items=[ ('PLUSX', "+X", ""),
('PLUSY', "+Y", ""),
('PLUSZ', "+Z", ""),
('NEGX', "-X", ""),
('NEGY', "-Y", ""),
('NEGZ', "-Z", "")
]
)
ApplyTranslationAlongMoreAxisVertical: bpy.props.BoolProperty(
name="Translate along more Axis Vertical",
description="This will take the translation along the axis above selected and move the other two axis proportionally by an amount",
default = False
)
TranslationAlongMoreAxisVertical: bpy.props.FloatVectorProperty(
name="Move other axis Vertically",
description="Move the bone in the direction you want it to go and put it's x, y and z in here to have it move in this direction when openpose Vertical motion occurs",
subtype = 'TRANSLATION',
unit = 'LENGTH',
default = (0.0, 0.0, 0.0),
size = 3
)
ApplyToZ: bpy.props.BoolProperty(
name="Apply Twist",
description="Applies the twist translation or rotatiation of the openpose points to the bone",
default = False
)
BoneTwistAxis: bpy.props.EnumProperty(
name="Twist Axis",
description="Axis to Apply twist translation or rotation to.",
items=[ ('PLUSX', "+X", ""),
('PLUSY', "+Y", ""),
('PLUSZ', "+Z", ""),
('NEGX', "-X", ""),
('NEGY', "-Y", ""),
('NEGZ', "-Z", "")
]
)
# ApplyRollCorrection: bpy.props.BoolProperty(
# name="Apply Roll Correction",
# description="Apply a Roll Correction to the Bone if we don't have an axis that is straight up and down to the openpose capture.",
# default = False
# )
#
#
# RollCorrection: bpy.props.FloatProperty(
# name="1st Roll Correction",
# description="The Angle to roll the bone before applying a transform to it.",
# subtype = 'ANGLE',
# unit = 'ROTATION',
# default = 0
# )
#
# BoneRollCorrectionAxis: bpy.props.EnumProperty(
# name="Roll 1st Correction Axis",
# description="Axis to Apply vertical translation or rotation to.",
# items=[ ('PLUSX', "X", ""),
# ('PLUSY', "Y", ""),
# ('PLUSZ', "Z", "")
# ]
# )
#
# ApplyRollCorrection2: bpy.props.BoolProperty(
# name="Apply 2nd Roll Correction",
# description="Apply a 2nd Roll Correction to the Bone if we don't have an axis that is straight up and down to the openpose capture.",
# default = False
# )
#
#
# RollCorrection2: bpy.props.FloatProperty(
# name="2nd Roll Correction",
# description="The Angle to roll the bone before applying a transform to it.",
# subtype = 'ANGLE',
# unit = 'ROTATION',
# default = 0
# )
#
# BoneRollCorrectionAxis2: bpy.props.EnumProperty(
# name="Roll Correction Axis",
# description="Axis to Apply vertical translation or rotation to.",
# items=[ ('PLUSX', "X", ""),
# ('PLUSY', "Y", ""),
# ('PLUSZ', "Z", "")
# ]
# )
UseCustomKeyFrameNumber: bpy.props.BoolProperty(
name="Use Custom Keyframe Number",
description="Override the global keyframe number to remove noise or increase sensitivity.",
default = False
)
CustomBonKeyFrameNumber: bpy.props.IntProperty(
name="Keyframe Bone Every N Frames",
description="Keyframe this bone every n Frames",
default = 5,
min = 1,
max = 100
)
# RemoveParentBonesTranslationEffectCorrection: bpy.props.BoolProperty(
# name="Removes the effects of a Parent Bone",
# description="If the jaw Bone moves a lip bone, this correction moves the lower lip back together so we can then translate them with respect to the nose.",
# default = False
# )
#
# ParentBoneCorrectionName: bpy.props.StringProperty(
# name="Name of Parent Bone to this one.",
# description="This is the name for the parent bone that is effecting this one.",
# default="",
# maxlen=1024
# )
#
# ParentCorrectionType: bpy.props.EnumProperty(
# name="Parent Bone Type of Motion to Nullify",
# description="The parent bones motion type that will be nulled out in the child bone",
# items=[ ('LOC', "Location", ""),
# ('ROT', "Rotation", ""),
# ]
# )
#
# ParentCorrectionVerticalAxis: bpy.props.EnumProperty(
# name="Parent Axis to remove motion or Angle from child",
# description="Axis to Apply vertical translation or rotation to.",
# items=[ ('PLUSX', "X", ""),
# ('PLUSY', "Y", ""),
# ('PLUSZ', "Z", "")
# ]
# )
#
#
# VerticalParentTranslationRemovalAmount: bpy.props.FloatProperty(
# name="Parent Bones Translation Amount",
# description="If the parent bone is moved by this amount, move the child back up by the below amount.",
# subtype = 'DISTANCE',
# default = 0
# )
#
#
# VerticalParentRotationAmount: bpy.props.FloatProperty(
# name="Rotation in degrees of parent bone to correct out.",
# description="If the parent bone is rotated along the above axis by this amount, translate the child the below amount vertically.",
# subtype = 'ANGLE',
# default = 0
# )
#
#
# VerticalTranslationRemovalAmount: bpy.props.FloatProperty(
# name="This Bones translation to null out angle above.",
# description="If the parent bone moves the above amount move it vertically back by this amount.",
# subtype = 'DISTANCE',
# default = 0
# )
#
# ParentCorrectionHorizontalAxis: bpy.props.EnumProperty(
# name="Parent Axis to remove motion or Angle from child",
# description="Axis to Apply horizontal translation or rotation to.",
# items=[ ('PLUSX', "X", ""),
# ('PLUSY', "Y", ""),
# ('PLUSZ', "Z", "")
# ]
# )
#
#
# HorizontalParentTranslationRemovalAmount: bpy.props.FloatProperty(
# name="Parent Bones Translation Amount",
# description="If the parent bone is moved by this amount, move the child back up by the below amount.",
# subtype = 'DISTANCE',
# default = 0
# )
#
#
# HorizontalParentRotationAmount: bpy.props.FloatProperty(
# name="Rotation in degrees of parent bone to correct out.",
# description="If the parent bone is rotated along the above axis by this amount, translate the child the below amount Horizontally.",
# subtype = 'ANGLE',
# default = 0
# )
#
#
# HorizontalTranslationRemovalAmount: bpy.props.FloatProperty(
# name="This Bones translation to null out angle above.",
# description="If the parent bone moves the above amount move it horizontally back by this amount.",
# subtype = 'DISTANCE',
# default = 0
# )
# DirectionQuatToApplyXandY: bpy.props.FloatVectorProperty(
# name="Rotation Correction",
# description="This quaternion will rotat the bone then translate it in the rotated direction then rotate it back at the end.",
# #default = Quaternion(1,0,0,0)
# subtype = 'QUATERNION',
# size = 4
# )
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# operators
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