from mu import Mu
import sys
def check_transform(obj, level):
print(" " * level + obj.transform.name + (" c" if hasattr(obj, "collider") else ""))
def check_obj(obj, level = 0):
check_transform(obj, level)
for o in obj.children:
check_obj(o, level + 1)
for fname in sys.argv[1:]:
mu = Mu()
if not mu.read(fname):
print("could not read: " + fname)
raise
check_obj(mu.obj)
def find_props(fname, props, anims):
mu = Mu()
mu.objects = {}
if not mu.read(fname):
print("could not read: " + fname)
raise
check_obj(mu.obj, props, anims, "", mu)
return mu
def dump(fname):
mu = Mu()
if not mu.read(fname):
print("could not read: " + fname)
raise
print(mu.version)
dump_textures(mu)
dump_materials(mu)
dump_object(mu, mu.obj)
def dump(fname):
mu = Mu()
if not mu.read(fname):
print("could not read: " + fname)
raise
print(mu.version)
dump_textures(mu)
dump_materials(mu)
dump_object(mu, mu.obj)
def makecfg(fname):
mu = Mu()
if not mu.read(fname):
print("could not read: " + fname)
raise
cfg = ConfigNode()
add_textures(mu, cfg)
add_materials(mu, cfg)
add_object(mu, mu.obj, cfg)
print(cfg.ToString())
def readJSON(filepath):
mu = Mu()
if not mu.read(filepath):
print 'File not found'
# print filepath
js = MuJS(mu.obj)
print js.getJSON()
with open('test.json', 'w+') as jsf:
json.dump(json.loads(js.getJSON()), jsf, indent=4)
def makecfg(fname):
mu = Mu()
if not mu.read(fname):
print("could not read: " + fname)
raise
cfg = ConfigNode()
add_textures(mu, cfg)
add_materials(mu, cfg)
add_object(mu, mu.obj, cfg)
print(cfg.ToString())
def find_lights(fname):
mu = Mu()
if not mu.read(fname):
print("could not read: " + fname)
raise
sys.stdout.write("checking " + fname)
if check_obj(mu.obj):
mu.write(fname+".new")
print(" fixed")
else:
print(" ok")
def main():
if len(sys.argv) != 3:
print("hull.py <in-name> <out-name>")
sys.exit(1)
fname = sys.argv[1]
oname = sys.argv[2]
mu = Mu()
if not mu.read(fname):
print("could not read: " + fname)
sys.exit(1)
find_colliders(mu.obj)
mu.write(oname)
def main():
if len(sys.argv) != 3:
print("hull.py <in-name> <out-name>")
sys.exit(1)
fname = sys.argv[1]
oname = sys.argv[2]
mu = Mu()
if not mu.read(fname):
print("could not read: " + fname)
sys.exit(1)
find_colliders(mu.obj)
mu.write(oname)
def main():
wheel_mu = sys.argv[1]
mu = Mu()
if not mu.read(wheel_mu):
print("could not read: " + fname)
raise
find_wheels(mu.obj)
if len(sys.argv) > 2:
node = ConfigNode.loadfile(sys.argv[2])
wheel = node.GetNode('Wheel')
if not wheel:
print("could not find Wheel")
sys.exit(1)
adjust_wheel(wheel)
mu.write("wheelout.mu")
else:
for w in wheel_colliders.keys():
node = wheel_cfg(w, wheel_colliders[w])
print("Wheel " + node.ToString())
def inferBestCMu(self, samples, currentGraph):
#import threading
import time
start_time = time.time()
fitness = Fitness()
threads = []
#can we run the method for each sample in parallel? This would speed up the process by a lot. THe samples are not dependent on each other!
for sampleInd in range(
1, len(samples)): #Skip the first 'dummy' precursor sample
self.inferBestCMuPerSample(samples, sampleInd, currentGraph,
fitness)
#t = threading.Thread(target=self.inferBestCMuPerSample, args=[samples,sampleInd,currentGraph, fitness])
#threads.append(t)
#t.start()
#for thread in threads:
# thread.join()
#After we have inferred the best C and mu for each sample, we can update the best C and mu in the samples.
for sample in range(0, len(samples)):
samples[sample].originalCMu = samples[sample].bestCMu
if samples[sample].bestCMu is None:
measurementLength = len(samples[0].measurements.measurements)
samples[sample].Mu = Mu(0) #assume 100% tumor
#Set a default bestCMu in this case, we don't know the solution.
print "sample ", sample, " setting CMu to 2"
samples[sample].bestCMu = [
CMuCombination(C([2, 2]), Mu(0), self.eventDistances)
] * measurementLength
else:
if samples[sample].bestCMu[0] is not None:
print "setting mu to: ", samples[sample].bestCMu[
0].mu.mu, " in sample: ", samples[sample].name
samples[sample].Mu = samples[sample].bestCMu[0].mu
else: #without a successfully inferred C and mu the sample is so complex it is most likely 100% tumor or contains a lot of subclones.
print sample, " Assuming 100% tumor"
samples[sample].Mu = Mu(0) #assume 100% tumor
print("--- %s seconds for all samples of 1 patient ---" %
(time.time() - start_time))
return samples
def main():
wheel_mu = sys.argv[1]
mu = Mu()
if not mu.read(wheel_mu):
print("could not read: " + fname)
raise
find_wheels(mu.obj)
if len(sys.argv) > 2:
text = open(sys.argv[2], "rt").read()
node = ConfigNode.load(text)
wheel = node.GetNode('Wheel')
if not wheel:
print("could not find Wheel")
sys.exit(1)
adjust_wheel(wheel)
mu.write("wheelout.mu")
else:
for w in wheel_colliders.keys():
node = wheel_cfg(w, wheel_colliders[w])
print("Wheel "+ node.ToString())
def computePermutationErrors(self, pCMatrix, pAMatrix, pSamples, pTreeList, permutedC, permutedA): #Import a class specific for computing permutation errors #Use it to compute the errors below simulationErrorHandler = SimulationErrorHandler() #Obtain the muData from the samples (also provide the real mu!) realSamples = self.simulationData.samples pMuTumor = [] realMuTumor = [] for sample in range(0, len(pSamples)): pSampleMuT = pSamples[sample].bestCMu[0].mu.mu[1] #sampleMuT = realSamples[sample].bestCMu[0].mu.mu[1] #print "current saved mu: ", self.savedMu[sample] #print "normal mu: ", 1-(100*self.savedMu[sample]) tumorMuConverted = int(100*self.savedMu[sample]) realMuTumor.append(Mu(100-tumorMuConverted)) #sampleMuT = realSamples[sample].bestCMu[0].mu pMuTumor.append(pSampleMuT) #savedMu.append(sampleMuT) [ambiguityScore, totalScore] = simulationErrorHandler.computeAmbiguityScore(permutedA, pAMatrix, self.savedMu, pMuTumor) pCMatrixFloat = pCMatrix.astype(float) error = simulationErrorHandler.computeCError(permutedC, pCMatrixFloat) pCError = error / float(permutedC.size) aData = simulationErrorHandler.computeAError(permutedA, pAMatrix) pAError = aData[0] / float(permutedA.size) muData = simulationErrorHandler.computeMuError(pSamples, realMuTumor) pMuError = muData[0] print self.simulationData.realTree.edgeList pTreeScore = simulationErrorHandler.computeTreeError(pTreeList, self.simulationData.realTree) print pCError print pAError print pMuError print pTreeScore print ambiguityScore print totalScore #return the scores return [pCError, pAError, pMuError, pTreeScore, ambiguityScore, totalScore]
def computeAmbiguousPositions():
#We can generate the allele list with the event distances function
kmin = 1 #the kmin and kmax used in the simulations
kmax = 6
eventDistance = EventDistances(kmin, kmax)
#get the allele list
alleleList = eventDistance.alleleList
#make sure that alleles are not duplicated
LAFAndCombinations = dict()
normalAlleles = Alleles(1, 1)
for allele in alleleList:
AOccurrences = [m.start() for m in re.finditer('A', allele)]
ACount = len(AOccurrences)
BOccurrences = [m.start() for m in re.finditer('B', allele)]
BCount = len(BOccurrences)
alleleObj = Alleles(ACount, BCount)
if BCount > ACount or BCount == ACount:
alleleCombination = AlleleCombination([normalAlleles, alleleObj])
for muIndex in range(0, 101):
LAF = alleleCombination.computeLAF(
Mu(muIndex)
) #compute the LAF that each combination would generate
if LAF not in LAFAndCombinations.keys():
#LAFAndCombinations[LAF] = []
LAFAndCombinations[LAF] = 0
#LAFAndCombinations[LAF].append((alleleObj.getAllelesAsString(), muIndex))
LAFAndCombinations[LAF] += 1
#print LAFAndCombinations
#For every mu, we should check which LAF the combination with normal would generate
#With this dictionary, we can check if a LAF has more than one solution. If true, then we can check and see if the position is correct or not. With that, we compute a score showing the
#number of ambiguous positions that we were able to infer correctly. This score is a higher wow factor than
return LAFAndCombinations
def __init__(self):
self.kmin = settings.general['kmin']
self.kmax = settings.general['kmax']
#Make a dummy bestCMu for the healthy sample
self.eventDistances = EventDistances(self.kmin, self.kmax)
#Initialize C+mu combinations and store in a matrix, objects do not need to be remade in loop
#These are the combinations that we will explore and score for each LAF in the method
self.combinationMatrix = np.empty([101, self.kmax], dtype='object')
for muIndex in range(
0, 101
): #we allow a maximum of 0-100, so it is fine to use these settings here.
muClass = Mu(muIndex)
for k in range(self.kmin, self.kmax + 1):
c = C([2, k])
cMuCombination = CMuCombination(c, muClass,
self.eventDistances)
self.combinationMatrix[muIndex][k - 1] = cMuCombination
self.cCombinations = CCombinations(
self.kmin, self.kmax
) #re-make this, we use iterators, otherwise the combinations need to be stored in memory.
def thread_func(parms):
name = parms
input = Mu()
input.file = open(name + ".bin", "rb")
verts = read_vertices(input)
faces = read_facelist(input)
final_faces = read_facelist(input)
point = input.read_int()
lit_faces = read_facelist(input)
new_faces = read_facelist(input)
output = Mu()
output.materials = []
output.textures = []
output.obj = make_empty(name)
output.obj.children.append(make_mesh("faces", verts, faces))
output.obj.children.append(make_mesh("final_faces", verts, final_faces))
output.obj.children.append(make_mesh("lit_faces", verts, lit_faces))
output.obj.children.append(make_mesh("new_faces", verts, new_faces))
if (point >= 0):
p = make_empty(f"point-{point}")
p.transform.localPosition = verts[point]
output.obj.children.append(p)
for ep in extra_points:
p = make_empty(f"epoint-{ep}")
p.transform.localPosition = verts[ep]
output.obj.children.append(p)
output.write(name + ".mu")
print(name)
pkl_file = open(simulationFolder + '/simulationData.pkl', 'rb')
simulationData = pickle.load(pkl_file)
pkl_file.close()
#Read the real data
cMatrix = simulationData.cMatrix
aMatrix = simulationData.aMatrix
realTree = simulationData.realTree
#Obtain the mu from the files
savedMu = []
with open(simulationFolder + '/RealMu_0.txt', "r") as muFile:
for line in muFile:
mu = float(line)
savedMu.append(Mu(mu))
samples = simulationData.samples
#Run TargetClone on samples
pkl_file = open(simulationSettings.files['targetCloneInstance'], 'rb')
targetClone = pickle.load(pkl_file)
pkl_file.close()
#Set the segmentation
segmentation = Segmentation()
segmentation.setSegmentationFromFile(
simulationSettings.files['segmentationFile'])
targetClone.segmentation = segmentation
precursorAlleleACount = int(settings.general['precursorAlleleACount'])
precursorAlleleBCount = int(settings.general['precursorAlleleBCount'])
#Check if the ploidy is correct
totalPloidy = precursorAlleleACount + precursorAlleleBCount
precursorTumorFrequency = 100 #Check if the ploidy is different from 2 (or allele balance). If true, then the precursor is not a healthy cell and we have 100% tumor
if precursorAlleleACount != 1 or precursorAlleleBCount != 1 or precursorPloidy != 2:
precursorTumorFrequency = 0 #In this case we have 100% tumor in the precursor. Only if the precursor it is normal it is 0% tumor.
#Initialize the 'healthy' sample, this can now also be a precursor
healthySample = Sample(None, None)
healthySample.C = [C([2, precursorPloidy])] * measurementLength
healthySample.A = [Alleles(precursorAlleleACount, precursorAlleleBCount)
] * measurementLength
healthySample.Mu = [Mu(precursorTumorFrequency)]
#obtain the chromosome, start and end information from the other samples
healthySample.measurements = LAF([0.5] * measurementLength,
tmpSamples[0].measurements.chromosomes,
tmpSamples[0].measurements.starts,
tmpSamples[0].measurements.ends)
healthySample.somaticVariants = [0] * somVarNum
healthySample.somaticVariantsInd = tmpSamples[0].somaticVariantsInd
healthySample.setParent(None)
healthySample.name = 'Precursor' #do not call it healthy, it may also be a 4N precursor.
#Make a dummy bestCMu for the healthy sample
eventDistances = targetClone.eventDistances
bestCMuHealthy = CMuCombination(C([2, precursorPloidy]),
Mu(precursorTumorFrequency), eventDistances)
from mu import Mu
import sys
def check_transform(obj, level):
print(" " * level + obj.transform.name)
def check_obj(obj, level=0):
check_transform(obj, level)
for o in obj.children:
check_obj(o, level + 1)
for fname in sys.argv[1:]:
mu = Mu()
if not mu.read(fname):
print("could not read: " + fname)
raise
check_obj(mu.obj)
from mu import Mu
import sys
def check_mesh(obj, level):
if hasattr(obj, "shared_mesh") and not hasattr(obj, "renderer"):
print(obj.transform.name)
obj.shared_mesh = None
return True
return False
def check_obj(obj, level=0):
changed = check_mesh(obj, level)
for o in obj.children:
changed = check_obj(o, level + 1) or changed
return changed
for fname in sys.argv[1:]:
mu = Mu()
if not mu.read(fname):
print("could not read: " + fname)
break
if check_obj(mu.obj):
mu.write(fname + ".out")
"coll_torus1",
"coll_torus2",
"coll_torus3",
"coll_torus4",
"coll_torus5",
"coll_torus6",
"coll_torus7",
"coll_torus8",
]
def check_transform(obj):
if obj.transform.name in broken_xforms:
print("zeroing lp for " + obj.transform.name)
obj.transform.localPosition = 0, 0, 0
def check_obj(obj):
for o in obj.children:
check_obj(o)
check_transform(obj)
if hasattr(obj, "animation"):
for clip in obj.animation.clips:
check_clip(clip)
fname = "centrifuge.mu"
mu = Mu()
if not mu.read(fname):
print("could not read: " + fname)
raise
check_obj(mu.obj)
mu.write("output.mu")
def computeCorrectAmbiguityScore(LAFAndCombinations, simulationFolder):
ambiguityScores = []
ambiguities = []
correctAmbiguityPositions = 0
totalAmbiguousPositions = 0
totalSize = 0
#We need to read the actual A matrix values and also the mu
normalAlleles = Alleles(1, 1)
#1. read the simulated A matrix
allPerColAmbiguities = dict()
for subdir, dirs, files in os.walk(simulationFolder):
if subdir == simulationFolder: #we are not interested in the root folder
continue
for file in files:
if re.match('RealA', file): #read the file and obtain the a matrix
realAMatrix = np.loadtxt(subdir + '/' + file, dtype=str)
if re.match('RealMu', file): #also read the real mu
realMu = collectErrorsFromFile(file, subdir)
#Then load the inferred A and mu
if re.match('EstimatedA',
file): #read the file and obtain the a matrix
estimatedAMatrix = np.loadtxt(subdir + '/' + file, dtype=str)
if re.match('EstimatedMu', file): #also read the real mu
estimatedMu = collectErrorsFromFile(file, subdir)
#Compute the LAF that each measurement in the real data would generate
perColAmbiguityCount = dict()
for row in range(0, realAMatrix.shape[0]):
for col in range(0, realAMatrix.shape[1]):
if col not in perColAmbiguityCount:
perColAmbiguityCount[col] = realAMatrix.shape[0]
totalSize += 1
#generate allele object
allele = realAMatrix[row][col]
AOccurrences = [m.start() for m in re.finditer('A', allele)]
ACount = len(AOccurrences)
BOccurrences = [m.start() for m in re.finditer('B', allele)]
BCount = len(BOccurrences)
alleleObj = Alleles(ACount, BCount)
alleleCombination = AlleleCombination(
[normalAlleles, alleleObj])
#Compute the LAF this combination would generate
muNormal = 1 - (realMu[col])
realMuObj = Mu(
int(muNormal *
100)) #this function only takes integer indices!
realLAF = alleleCombination.computeLAF(realMuObj)
#Check if this LAF is ambiguous y/n.
ambiguousCount = LAFAndCombinations[realLAF]
#If the ambiguous count > 1 and we are correct, we make a note of that.
if ambiguousCount > 1:
totalAmbiguousPositions += 1
if realAMatrix[row][col] == estimatedAMatrix[row][col]:
correctAmbiguityPositions += 1
perColAmbiguityCount[
col] -= 1 #Determine how many positions are wrong.
#Divide the ambiguity score by the total number of positions.
#print correctAmbiguityPositions
#print correctAmbiguityPositions / float(totalAmbiguousPositions)
#print totalAmbiguousPositions / float(totalSize)
#ambiguityScores.append(correctAmbiguityPositions / float(totalAmbiguousPositions)) #Reporting as % of ambiuguities
#Reporting the ambiguity scores as the fraction of the total
ambiguityScores.append(correctAmbiguityPositions / float(totalSize))
ambiguities.append(totalAmbiguousPositions / float(totalSize))
allPerColAmbiguities[subdir] = perColAmbiguityCount
#Compute an average for every noise level.
#convert to z-scores
averageAmbiguityScore = sum(ambiguityScores) / float(len(ambiguityScores))
averageAmbiguities = sum(ambiguities) / float(len(ambiguities))
return [
averageAmbiguities, averageAmbiguityScore, ambiguityScores,
allPerColAmbiguities
]
def find_props(fname, props):
mu = Mu()
if not mu.read(fname):
print("could not read: " + fname)
raise
check_obj(mu.obj, props, "")
"coll_torus1",
"coll_torus2",
"coll_torus3",
"coll_torus4",
"coll_torus5",
"coll_torus6",
"coll_torus7",
"coll_torus8",
]
def check_transform(obj):
if obj.transform.name in broken_xforms:
print("zeroing lp for " + obj.transform.name)
obj.transform.localPosition = 0, 0, 0
def check_obj(obj):
for o in obj.children:
check_obj(o)
check_transform(obj)
if hasattr(obj, "animation"):
for clip in obj.animation.clips:
check_clip(clip)
fname = "centrifuge.mu"
mu = Mu()
if not mu.read(fname):
print("could not read: " + fname)
raise
check_obj(mu.obj)
mu.write("output.mu")
def find_skins(fname):
mu = Mu()
if not mu.read(fname):
print("could not read: " + fname)
raise
check_obj(mu.obj)
from mu import Mu
import sys
def check_mesh(obj, level):
if hasattr(obj, "shared_mesh") and not hasattr(obj, "renderer"):
print(obj.transform.name)
obj.shared_mesh = None
return True
return False
def check_obj(obj, level = 0):
changed = check_mesh(obj, level)
for o in obj.children:
changed = check_obj(o, level + 1) or changed
return changed
for fname in sys.argv[1:]:
mu = Mu()
if not mu.read(fname):
print("could not read: " + fname)
break
if check_obj(mu.obj):
mu.write(fname+".out")
