def timer(mode="l", function=""):
if mode == "s":
try:
startTime = cmds.timer(startTimer=True)
G.UM_timerMessage = "startTime: %s\n" % startTime
G.UM_timerLap = 1
except:
pass
elif mode == "l":
try:
lapTime = cmds.timer(lapTime=True)
G.UM_timerMessage += "lapTime %s: %s\n" % (G.UM_timerLap, lapTime)
G.UM_timerLap += 1
except:
pass
elif mode == "e":
try:
fullTime = cmds.timer(endTimer=True)
G.UM_timerMessage += "Timer: %s took %s sec.\n" % (function,
fullTime)
except:
pass
print G.UM_timerMessage
def timer(mode="l", function=""):
if mode == "s":
try:
startTime = cmds.timer( startTimer=True)
G.UM_timerMessage = "startTime: %s\n"%startTime
G.UM_timerLap = 1
except:
pass
elif mode == "l":
try:
lapTime = cmds.timer( lapTime=True)
G.UM_timerMessage += "lapTime %s: %s\n"%(G.UM_timerLap, lapTime)
G.UM_timerLap += 1
except:
pass
elif mode == "e":
try:
fullTime = cmds.timer( endTimer=True)
G.UM_timerMessage += "Timer: %s took %s sec.\n"%(function, fullTime)
except:
pass
print G.UM_timerMessage
def onRelease(self):
cmds.timer(e=True)
self.endTime = cmds.currentTime(q=True)
if "translate" in self.mode:
if self.channelBox is True:
if self.simplify is True:
utils().simplify(self.object,
(self.startTime, self.endTime),
at=self.attributes)
else:
if self.simplify is True:
if self.shape is True:
simpAt = ['xValue', 'yValue', 'zValue']
else:
simpAt = ['tx', 'ty', 'tz']
utils().simplify(self.object,
(self.startTime, self.endTime),
at=simpAt)
if "rotate" in self.mode and self.shape is False:
if self.channelBox is True:
# euler filter
for at in self.attributes:
cmds.filterCurve(self.object + '.' + at,
f='euler',
s=self.startTime,
e=self.endTime)
if self.simplify is True:
utils().simplify(self.object,
(self.startTime, self.endTime),
at=self.attributes)
else:
for at in ['rx', 'ry', 'rz']:
cmds.filterCurve(self.object + '.' + at,
f='euler',
s=self.startTime,
e=self.endTime)
if self.simplify is True:
utils().simplify(self.object,
(self.startTime, self.endTime),
at=['rx', 'ry', 'rz'])
mel.eval('timeControl -e -endScrub $gPlayBackSlider;')
def main(meshName, outputFolder):
cmds.timer(s=True)
cmds.undoInfo( state=False)
mel.eval("paneLayout -e -manage false $gMainPane")
#Take the markers arranged in groups
markersSelection = sorted(cmds.listRelatives("TopMarkers")) + sorted(cmds.listRelatives("TopMiddleMarkers")) + sorted(cmds.listRelatives("MiddleMarkers")) + sorted(cmds.listRelatives("MiddleBottomMarkers")) + sorted(cmds.listRelatives("BottomMarkers"))
#Take the geodesic vertices
geodesicVertices = cmds.ls(cmds.sets("MouthArea", q=True), flatten=True) + cmds.ls(cmds.sets("REyeArea", q=True), flatten=True) + cmds.ls(cmds.sets("LEyeArea", q=True), flatten=True)
matrix = calculateDistanceMatrixToFile(meshName, outputFolder, markersSelection, geodesicVertices, calculateEuclideanMatrix = True, calculateGeodesicMatrix=True)
mel.eval("paneLayout -e -manage true $gMainPane")
cmds.undoInfo( state=True)
time = cmds.timer(e=True)
print("Matrix calculations completed. Files created at: " + outputFolder)
print("Running time: " + str(time) + "s")
def onPress(self):
self.attributes = cmds.channelBox("mainChannelBox",
query=True,
sma=True)
if self.attributes is None:
self.attributes = []
self.lastT = 0
cmds.timer(s=True)
self.startTime = cmds.currentTime(q=True)
self.lastHit = cmds.draggerContext(self.dragCtx,
q=True,
anchorPoint=True)
# get cam vectors
camObject = utils().getCam()
viewDir = camObject.viewDirection(om.MSpace.kWorld)
self.upDir = camObject.upDirection(om.MSpace.kWorld)
rightDir = camObject.rightDirection(om.MSpace.kWorld)
self.lastVec = None
self.lastRot = [0.0, 0.0, 0.0]
self.idQuat = utils().quatFromObj(self.object)
self.idVec = utils().localToWorld(self.idLocalVec, self.object)
mel.eval('timeControl -e -beginScrub $gPlayBackSlider;')
def onDrag(self):
# timer
lap = cmds.timer(lap=True)
curTime = cmds.currentTime(q=True)
sub = lap - self.lastT
#get position
dragPosition = cmds.draggerContext(self.dragCtx,
q=True,
dragPoint=True)
# start operations
if sub > self.timeFactor / self.fps:
self.objPos = cmds.xform(self.object, q=True, ws=True, t=True)
# translate
if "translate" in self.mode:
# key attributes
if self.channelBox is True:
if 'tx' in self.attributes:
cmds.move(dragPosition[0] * self.unit,
self.object,
ws=True,
absolute=True,
wd=True,
x=True)
cmds.setKeyframe(self.object, at='tx')
if 'ty' in self.attributes:
cmds.move(dragPosition[1] * self.unit,
self.object,
ws=True,
absolute=True,
wd=True,
y=True)
cmds.setKeyframe(self.object, at='ty')
if 'tz' in self.attributes:
cmds.move(dragPosition[2] * self.unit,
self.object,
ws=True,
absolute=True,
wd=True,
z=True)
cmds.setKeyframe(self.object, at='tz')
else:
cmds.move(dragPosition[0] * self.unit,
dragPosition[1] * self.unit,
dragPosition[2] * self.unit,
self.object,
ws=True,
absolute=True,
wd=True)
if self.shape:
cmds.setKeyframe(self.object)
else:
cmds.setKeyframe(self.object, at='translate')
# rotate
if "rotate" in self.mode and self.shape is False:
self.vector = om.MVector(dragPosition[0] - self.objPos[0],
dragPosition[1] - self.objPos[1],
dragPosition[2] - self.objPos[2])
if self.autoAim is True:
if self.lastVec is None:
self.idVec = self.vector
rotator = om.MQuaternion(self.idVec, self.vector)
result = self.idQuat * rotator
euler = result.asEulerRotation()
dragRotation = [
math.degrees(euler.x),
math.degrees(euler.y),
math.degrees(euler.z)
]
relRotation = [
new - old for new, old in zip(dragRotation, self.lastRot)
]
# key attributes
if self.channelBox is True:
if 'rx' in self.attributes:
cmds.rotate(dragRotation[0],
ws=True,
absolute=True,
x=True)
cmds.setKeyframe(self.object, at='rx')
if 'ry' in self.attributes:
cmds.rotate(dragRotation[1],
ws=True,
absolute=True,
y=True)
cmds.setKeyframe(self.object, at='ry')
if 'rz' in self.attributes:
cmds.rotate(dragRotation[2],
ws=True,
absolute=True,
z=True)
cmds.setKeyframe(self.object, at='rz')
else:
cmds.rotate(dragRotation[0],
dragRotation[1],
dragRotation[2],
ws=True,
absolute=True)
# cmds.rotate(relRotation[0],relRotation[1],relRotation[2],ws=True,relative=True,eu=True)
self.lastRot = dragRotation
cmds.setKeyframe(self.object, at='rotate')
# looping variables
self.lastVec = self.vector
# change time
cmds.currentTime(curTime + 1)
cmds.currentTime(curTime + 1)
self.lastT = lap
def calculateDistanceMatrixToFile(meshName, outputFolder, markersList, geodesicVertices, calculateEuclideanMatrix=True, calculateGeodesicMatrix=True):
#Start progress bar
progressAmount = 0;
gMainProgressBar = mel.eval('$tmp = $gMainProgressBar')
cmds.progressBar(gMainProgressBar, edit=True, progress=progressAmount, status='Calculating...', isInterruptable=True, bp=True )
nVert = cmds.polyEvaluate(meshName, v=True)
outFileEuclidean = None
outFileGeodesics = None
outFileHybrid = None
#Open the output files
if (calculateEuclideanMatrix):
if not os.path.exists(outputFolder):
try:
os.makedirs(outputFolder)
except OSError as exc:
if exc.errno != errno.EEXIST:
raise
path = outputFolder+"/eucMatrix.mtx"
outFileEuclidean = open(path, 'w')
if (calculateGeodesicMatrix):
if not os.path.exists(outputFolder):
try:
os.makedirs(outputFolder)
except OSError as exc:
if exc.errno != errno.EEXIST:
raise
path = outputFolder+"/geoMatrix.mtx"
outFileGeodesics = open(path, 'w')
if (calculateEuclideanMatrix and calculateGeodesicMatrix):
if not os.path.exists(outputFolder):
try:
os.makedirs(outputFolder)
except OSError as exc:
if exc.errno != errno.EEXIST:
raise
path = outputFolder+"/hybMatrix.mtx"
outFileHybrid = open(path, 'w')
#Go to frame 0 (reference frame)
cmds.currentTime(0)
#Create a list with the closest vertices to the markers
vertexMarkers = matchMarkersWithMesh(markersList, meshName)
#Progress control
progressStep = float(100) / float(nVert)
euclideanTime = 0
geodesicTime = 0
hybridTime = 0
#Calculate distance matrix values for every vertex
if (calculateEuclideanMatrix or calculateGeodesicMatrix):
for i in range (0, nVert):
progressAmount += progressStep
cmds.progressBar(gMainProgressBar, edit=True, status="Calculating distance matrices for row " + str(i) + " of " + str(nVert), progress=progressAmount)
for j in range (0, len(vertexMarkers)):
v1Name = meshName + ".vtx[" + str(i) + "]"
v2Name = meshName + ".vtx[" + str(vertexMarkers[j]) + "]"
eucDist = 0
geoDist = 0
if (calculateEuclideanMatrix):
cmds.timer(s=True, name="euclideanTimer")
v1 = cmds.pointPosition(v1Name)
v2 = cmds.pointPosition(v2Name)
eucDist = getEuclideanDistance(v1, v2)
outFileEuclidean.write(str(eucDist)+"\n")
euclideanTime += cmds.timer(e=True, name="euclideanTimer")
if (calculateGeodesicMatrix):
cmds.timer(s=True, name="geodesicTimer")
geoDist = getGeodesicDistancev2(meshName, i, vertexMarkers[j])
outFileGeodesics.write(str(geoDist)+"\n")
geodesicTime += cmds.timer(e=True, name="geodesicTimer")
if (calculateEuclideanMatrix and calculateGeodesicMatrix):
cmds.timer(s=True, name="hybridTimer")
hybDist = getHybridDistance(geodesicVertices, v1Name, eucDist, geoDist)
outFileHybrid.write(str(hybDist)+"\n")
hybridTime += cmds.timer(e=True, name="hybridTimer")
#Progress control
if cmds.progressBar(gMainProgressBar, q=True, ic=True):
cmds.progressBar(gMainProgressBar, edit=1, ep=1)
if (outFileEuclidean != None):
outFileEuclidean.close()
if (outFileGeodesics != None):
outFileGeodesics.close()
if (outFileHybrid != None):
outFileHybrid.close()
return
#Close the file descriptors
if (outFileEuclidean != None):
outFileEuclidean.close()
if (outFileGeodesics != None):
outFileGeodesics.close()
if (outFileHybrid != None):
outFileHybrid.close()
#Close the progress bar
cmds.progressBar(gMainProgressBar, edit=1, ep=1)
#Print the time results
print("Time for calculating Euclidean dist. matrix: " + str(euclideanTime))
print("Time for calculating Geodesic dist. matrix: " + str(geodesicTime))
print("Time for calculating Hybrid dist. matrix: " + str(hybridTime))
def startRender(self): # Will also return time taken from start to finish in minutes, to 2 decimal places frameDataLog = [] #Stores a comprehensive list of each frame as it is rendered with a timestamp for initialisation frameDataStringLog = []#Stores a comprehensive string list of each frame as it is rendered with a timestamp for initialisation, for using in the render log frameDataLogTemp = [] #Stores frame information temporarily #ints framesRendered = 0 #Stores current amount of frames rendered for determining overall progress percentComplete = 0 #Stores the percentage to completion, also used to determine if render completed successfully #Strings frameDataString = "null" #Stores frame information renderStartTimeStamp = ma.date(t=True) #Stores the time in which the render function was first called #floats renderTimeStamp = 0.0 #Stores the time in which the render completed or was forcably stopped #startTimer renderTimer = ma.timer(startTimer = True) ###WINDOW CREATION #createWindow to allow interupting of progress. ma.progressWindow(isInterruptable=1, t="aBRS_RENDER", status = "Rendering...") #begin rendering frames for frame in self._frameList: ##Allow interuption to stop the render if ma.progressWindow(query=True, isCancelled = True): print "Render Cancelled by User." break #set current frame ma.currentTime(frame) #store frame data and timestamp for initialisation then print. frameDataLogTemp = [self._getCam(frame), frame, ma.date(t=True)] # A nice list storing frame information (incase of storage) frameDataString = "Camera: %s, Frame: %s, TimeStarted: %s" % (str(frameDataLogTemp[0]), str(frameDataLogTemp[1]), str(frameDataLogTemp[2])) #Store data in lists frameDataLog.append(frameDataLogTemp) frameDataStringLog.append(frameDataString) #print current string data to viewport print frameDataString """RENDER OCCURS HERE""" #try as maya 2018 arnold render returns a runtime error when interuption is detected self.tryArnoldRender(frame) #Add to frames rendered framesRendered += 1 #Get percentage according to rendered vs total frames percentComplete = self._renderPercentComplete(framesRendered) #Update the progress window ma.progressWindow( edit=True, progress=percentComplete ) '''Rendering has finished - Closing procedures''' #End timer renderTimer = ma.timer(endTimer = True) #End Progress window ma.progressWindow(endProgress=1) #Store total render time renderTimeStamp = str(round(renderTimer/60, 2)) #record values for log file self._lS_frameDataSTR = frameDataStringLog self._lS_frameData = frameDataLog self._lS_renderStartTime = renderStartTimeStamp self._lS_renderEndTime = ma.date(t=True) self._lS_renderTimeInMinutes = renderTimeStamp self._lS_renderCompletionSuccessful = percentComplete == 100 self.storeRenderData() #Generate log self.generateRenderLog() return "Render Time in Minutes: " + str(renderTimeStamp)
def main(firstFrame, lastFrame, steps, meshName, matrixFolderPath,
stiffnessValues, RBFTechnique):
#Check if the mesh exists in the DAG
if not cmds.objExists(meshName):
print("Mesh name does not match any object")
return
#Check that the RBF technique is valid
if (RBFTechnique < 0 or RBFTechnique > 2):
print("The RBF Technique code is not valid")
return
#Try to open the distance matrix files
matrixFileEuclidean = None
matrixFileGeodesics = None
matrixFileHybrid = None
if (RBFTechnique == 0):
try:
matrixFileEuclidean = open(matrixFolderPath + "/eucMatrix.mtx",
'r')
except IOError:
confirm = cmds.confirmDialog(
title='Matrix no found',
message=
'Could not find the Euclidean matrix file (eucmatrix.mtx) in the given path, do you want to proceed with the calculations without matrix? (not recommended for dense meshes)',
button=['Yes', 'No'],
defaultButton='Yes',
cancelButton='No',
dismissString='No')
if (confirm == "No"):
return
if (RBFTechnique == 1):
try:
matrixFileGeodesics = open(matrixFolderPath + "/geoMatrix.mtx",
'r')
except IOError:
confirm = cmds.confirmDialog(
title='Matrix no found',
message=
'Could not find the Geodesics matrix file (geomatrix.mtx) in the given path, do you want to proceed with the calculations without matrix? (not recommended for dense meshes)',
button=['Yes', 'No'],
defaultButton='Yes',
cancelButton='No',
dismissString='No')
if (confirm == "No"):
return
if (RBFTechnique == 2):
try:
matrixFileHybrid = open(matrixFolderPath + "/hybMatrix.mtx", 'r')
except IOError:
confirm = cmds.confirmDialog(
title='Matrix no found',
message=
'Could not find the Hybrid matrix file (hybmatrix.mtx) in the given path, do you want to proceed with the calculations without matrix? (not recommended for dense meshes)',
button=['Yes', 'No'],
defaultButton='Yes',
cancelButton='No',
dismissString='No')
if (confirm == "No"):
return
#Take the markers arranged in groups
markersSelection = sorted(cmds.listRelatives("TopMarkers")) + sorted(
cmds.listRelatives("TopMiddleMarkers")) + sorted(
cmds.listRelatives("MiddleMarkers")) + sorted(
cmds.listRelatives("MiddleBottomMarkers")) + sorted(
cmds.listRelatives("BottomMarkers"))
#Take the vertices of the geodesic areas (for hybrid)
geodesicVertices = None
if (RBFTechnique == 2):
geodesicVertices = cmds.ls(
cmds.sets("MouthArea", q=True), flatten=True) + cmds.ls(
cmds.sets("REyeArea", q=True), flatten=True) + cmds.ls(
cmds.sets("LEyeArea", q=True), flatten=True)
#Calculate the animation of the mesh
cmds.undoInfo(state=False)
cmds.timer(s=True)
mel.eval("paneLayout -e -manage false $gMainPane")
animateMesh(meshName, markersSelection, firstFrame, lastFrame, steps,
stiffnessValues, RBFTechnique, matrixFileEuclidean,
matrixFileGeodesics, matrixFileHybrid, geodesicVertices)
mel.eval("paneLayout -e -manage true $gMainPane")
totalTime = cmds.timer(e=True)
cmds.undoInfo(state=True)
#Close the file descriptors
if (matrixFileEuclidean != None):
matrixFileEuclidean.close()
if (matrixFileGeodesics != None):
matrixFileGeodesics.close()
if (matrixFileHybrid != None):
matrixFileHybrid.close()
#Print total time
print("TOTAL ---------------------------------------")
print("Total running time: " + str(totalTime) + "s")
print("---------------------------------------------")
print("")
def animateMesh(mesh, markersList, firstFrame, lastFrame, steps,
stiffnessValues, RBFTechnique, matrixFileEuclidean,
matrixFileGeodesics, matrixFileHybrid, geodesicVertices):
#File flags
eucMatrixExists = (matrixFileEuclidean != None)
geoMatrixExists = (matrixFileGeodesics != None)
hybMatrixExists = (matrixFileHybrid != None)
#Start progress bar
progressAmount = 0
gMainProgressBar = mel.eval('$tmp = $gMainProgressBar')
cmds.progressBar(gMainProgressBar,
edit=True,
progress=progressAmount,
status='Initializing calculations...',
isInterruptable=True,
bp=True)
meshFullPath = cmds.ls(mesh, long=True)[0]
nVert = cmds.polyEvaluate(mesh, v=True)
RBFTime = 0
#Set the default position of the vertices in all the frames
print("Setting default position in all frames")
for x in range(firstFrame, lastFrame + 1, steps):
cmds.currentTime(x)
for i in range(nVert):
cmds.select(mesh + ".vtx[" + str(i) + "]", r=True)
cmds.setKeyframe(meshFullPath + "|" + mesh + "Shape.pnts[" +
str(i) + "]",
breakdown=0)
cmds.setKeyframe(mesh + ".vtx[" + str(i) + "]",
breakdown=0,
hierarchy="none",
controlPoints=0,
shape=0)
#Progress control
if cmds.progressBar(gMainProgressBar, q=True, ic=True):
cmds.progressBar(gMainProgressBar, edit=1, ep=1)
return
#Calculate the vertices matching the markers at frame 0
print("Calculating corresponding vertex for each marker...")
#Pre-calculation timer starts
cmds.timer(s=True, name="precalcTimer")
cmds.currentTime(0)
vertexMarkers = matchMarkersWithMesh(markersList, mesh)
#Take the position reference from frame 0
print("Calculating initial positions...")
markersInitialPos = []
for i in range(len(markersList)):
markersInitialPos.append(getObjectPoint(markersList[i]))
print("Filling distance matrix...")
#Create and fill the distance matrix for Euclidean
distMatrixEuc = []
if (RBFTechnique == 0):
for i in range(nVert):
distMatrixEuc.append([])
for j in range(nVert):
distMatrixEuc[i].append(0)
if (eucMatrixExists):
for v in range(nVert):
for c in range(len(markersList)):
cmds.timer(s=True, name="RBFTimer")
dist = float(matrixFileEuclidean.readline())
distMatrixEuc[v][vertexMarkers[c]] = dist
distMatrixEuc[vertexMarkers[c]][v] = dist
RBFTime += cmds.timer(e=True, name="RBFTimer")
else:
for v in range(nVert):
for c in range(len(markersList)):
vPos1 = cmds.pointPosition(mesh + ".vtx[" + str(v) + "]")
vPos2 = cmds.pointPosition(mesh + ".vtx[" +
str(vertexMarkers[c]) + "]")
cmds.timer(s=True, name="RBFTimer")
dist = getEuclideanDistance(vPos1, vPos2)
distMatrixEuc[v][vertexMarkers[c]] = dist
distMatrixEuc[vertexMarkers[c]][v] = dist
RBFTime += cmds.timer(e=True, name="RBFTimer")
#Create and fill the distance matrix for Geodesics
distMatrixGeo = []
if (RBFTechnique == 1):
for i in range(nVert):
distMatrixGeo.append([])
for j in range(nVert):
distMatrixGeo[i].append(0)
if (geoMatrixExists):
for v in range(nVert):
for c in range(len(vertexMarkers)):
cmds.timer(s=True, name="RBFTimer")
dist = float(matrixFileGeodesics.readline())
distMatrixGeo[v][vertexMarkers[c]] = dist
distMatrixGeo[vertexMarkers[c]][v] = dist
RBFTime += cmds.timer(e=True, name="RBFTimer")
else:
for v in range(nVert):
for c in range(len(markersList)):
cmds.timer(s=True, name="RBFTimer")
dist = getGeodesicDistancev2(mesh, v, vertexMarkers[c])
distMatrixGeo[v][vertexMarkers[c]] = dist
distMatrixGeo[vertexMarkers[c]][v] = dist
RBFTime += cmds.timer(e=True, name="RBFTimer")
print("Calculating weight matrix...")
#Create and fill the distance matrix for Hybrid
distMatrixHybrid = []
if (RBFTechnique == 2):
for i in range(nVert):
distMatrixHybrid.append([])
for j in range(nVert):
distMatrixHybrid[i].append(0)
if (hybMatrixExists):
for v in range(nVert):
for c in range(len(vertexMarkers)):
cmds.timer(s=True, name="RBFTimer")
dist = float(matrixFileHybrid.readline())
distMatrixHybrid[v][vertexMarkers[c]] = dist
distMatrixHybrid[vertexMarkers[c]][v] = dist
RBFTime += cmds.timer(e=True, name="RBFTimer")
else:
for v in range(nVert):
averWeight = 1
vName = mesh + ".vtx[" + str(v) + "]"
vPoint = cmds.pointPosition(vName)
if (not (vName in geodesicVertices)):
gdist = sys.float_info.max
for j in range(len(geodesicVertices)):
auxDist = getEuclideanDistance(
vPoint, cmds.pointPosition(geodesicVertices[j]))
if (auxDist < gdist):
gdist = auxDist
averWeight = calculateGaussianRBF(gdist, 2)
for c in range(len(markersList)):
cmds.timer(s=True, name="RBFTimer")
dist = 0
if (averWeight < 0.6):
dist = getEuclideanDistance(vPoint,
markersInitialPos[c])
else:
dist = getGeodesicDistancev2(
mesh, v, vertexMarkers[c]
) * averWeight + getEuclideanDistance(
vPoint, markersInitialPos[c]) * (1 - averWeight)
distMatrixHybrid[v][vertexMarkers[c]] = dist
distMatrixHybrid[vertexMarkers[c]][v] = dist
RBFTime += cmds.timer(e=True, name="RBFTimer")
#Print total RBF Time
RBFPrecTime = RBFTime
print("Total RBF Time in distance calculations: " + str(RBFPrecTime) +
" s")
#Progress control
progressStep = float(90) / (float(1 + lastFrame - firstFrame) /
float(steps))
progressAmount += 5
if cmds.progressBar(gMainProgressBar, q=True, ic=True):
cmds.progressBar(gMainProgressBar, edit=1, ep=1)
return
#End pre-calculation timer
precalcTime = cmds.timer(e=True, name="precalcTimer")
#Initialize new timers
frameTime = 0
averageFrameTime = 0
keyframingTime = 0
averageKeyframingTime = 0
iterations = 0
for x in range(firstFrame, lastFrame + 1, steps):
iterations += 1
#Frame timer starts
cmds.timer(s=True, name="frameTimer")
#Progress control
cmds.progressBar(gMainProgressBar,
edit=True,
status="Calculating mesh deformation for frame " +
str(x),
progress=progressAmount)
print("Calculating deformations for frame " + str(x))
#Calculate the displacement of the control points
cmds.currentTime(x)
markersDispPos = []
markersDisp = []
for i in range(len(markersList)):
markersDispPos.append(getObjectPoint(markersList[i]))
markersDisp.append([
markersDispPos[i][0] - markersInitialPos[i][0],
markersDispPos[i][1] - markersInitialPos[i][1],
markersDispPos[i][2] - markersInitialPos[i][2]
])
#Calculate the displacement of all the vertices by the RBF method
#Initialize rbf matrix
rbfMatrix = []
for i in range(len(markersList)):
rbfMatrix.append([])
for j in range(len(markersList)):
rbfMatrix[i].append(0)
#Calculate the rbf matrix
print(" Calculating RBF matrix... ")
for i in range(0, len(markersList)):
for j in range(i, len(markersList)):
dist = 0
eucDist = 0
geoDist = 0
hybDist = 0
#Euclidean calculations
if (RBFTechnique == 0):
dist = distMatrixEuc[vertexMarkers[i]][vertexMarkers[j]]
#Geodesics calculations
if (RBFTechnique == 1):
dist = distMatrixGeo[vertexMarkers[i]][vertexMarkers[j]]
#Hybrid calculations
if (RBFTechnique == 2):
dist = distMatrixHybrid[vertexMarkers[i]][vertexMarkers[j]]
cmds.timer(s=True, name="RBFTimer")
rbf = calculateGaussianRBF(dist, stiffnessValues[i])
rbfMatrix[i][j] = rbf
rbfMatrix[j][i] = rbf
RBFTime += cmds.timer(e=True, name="RBFTimer")
#Progress control
if cmds.progressBar(gMainProgressBar, q=True, ic=True):
cmds.progressBar(gMainProgressBar, edit=1, ep=1)
return
#Calculate the weight of each control point
print(" Calculating weight of control points...")
weights = []
for i in range(len(markersList)):
weights.append([0, 0, 0])
cmds.timer(s=True, name="RBFTimer")
for j in range(len(markersList)):
weights[i][0] += rbfMatrix[i][j]
weights[i][1] += rbfMatrix[i][j]
weights[i][2] += rbfMatrix[i][j]
weights[i][0] = markersDisp[i][0] / weights[i][0]
weights[i][1] = markersDisp[i][1] / weights[i][1]
weights[i][2] = markersDisp[i][2] / weights[i][2]
RBFTime += cmds.timer(e=True, name="RBFTimer")
#Calculate the displacement of the vertices of the mesh
print(" Calculating displacement of the vertices of the mesh...")
vDisp = []
for i in range(nVert):
vDisp.append([0, 0, 0])
vName = mesh + ".vtx[" + str(i) + "]"
vPos = cmds.pointPosition(vName)
for c in range(len(markersList)):
dist = 0
#Euclidean calculations
if (RBFTechnique == 0):
dist = distMatrixEuc[i][vertexMarkers[c]]
#Geodesics calculations
if (RBFTechnique == 1):
dist = distMatrixGeo[i][vertexMarkers[c]]
#Hybrid calculations
if (RBFTechnique == 2):
dist = distMatrixHybrid[i][vertexMarkers[c]]
cmds.timer(s=True, name="RBFTimer")
rbf = calculateGaussianRBF(dist, stiffnessValues[c])
vDisp[i][0] += weights[c][0] * rbf
vDisp[i][1] += weights[c][1] * rbf
vDisp[i][2] += weights[c][2] * rbf
RBFTime += cmds.timer(e=True, name="RBFTimer")
#Progress control
if cmds.progressBar(gMainProgressBar, q=True, ic=True):
cmds.progressBar(gMainProgressBar, edit=1, ep=1)
return
# Apply the calculated displacement to all the vertices
print(" Applying displacements...")
for j in range(nVert):
#Keyframing timer starts
cmds.timer(s=True, name="keyframingTimer")
#Displace the vertex
cmds.select(mesh + ".vtx[" + str(j) + "]", r=True)
cmds.move(vDisp[j][0],
vDisp[j][1],
vDisp[j][2],
r=True,
ls=True,
wd=True)
#Set a key for the vertex
cmds.setKeyframe(meshFullPath + "|" + mesh + "Shape.pnts[" +
str(j) + "]",
breakdown=0)
cmds.setKeyframe(mesh + ".vtx[" + str(j) + "]",
breakdown=0,
hierarchy="none",
controlPoints=0,
shape=0)
#Keyframing timer ends
keyframingTime += cmds.timer(e=True, name="keyframingTimer")
#Progress control
progressAmount += progressStep
if cmds.progressBar(gMainProgressBar, q=True, ic=True):
cmds.progressBar(gMainProgressBar, edit=1, ep=1)
return
#Frame timer ends
frameTime += cmds.timer(e=True, name="frameTimer")
#Print times
averageKeyframingTime = float(keyframingTime) / float(iterations)
averageFrameTime = float(frameTime) / float(iterations)
RBFTimePerFrame = float(RBFTime - RBFPrecTime) / float(iterations)
print("")
print("ALGORITHM: ----------------------------------")
print("Pre-calculation time: " + str(precalcTime) + " s")
print("Frames calculated: " + str(iterations) + " frames")
print("Average frame time: " + str(averageFrameTime) + " s/frame")
print(" Average keyframing time: " + str(averageKeyframingTime) +
" s/frame")
print(" Average algorithm time: " +
str(averageFrameTime - averageKeyframingTime) + " s/frame")
print("---------------------------------------------")
print("")
print("RBF CALCULATIONS: ---------------------------")
print("RBF total calculation time: " + str(RBFTime) + " s")
print(" RBF dist. calculation time: " + str(RBFPrecTime) + " s")
print(" RBF calculation time per frame: " + str(RBFTimePerFrame) +
" s/frame")
print("---------------------------------------------")
print("")
#End progress bar
cmds.progressBar(gMainProgressBar, edit=1, ep=1)
return