def performPhasing(folderName, mummerLink):
print "performPhasing"
'''
1. Interface from alignmentBridge.py :
shortToLongMap = formRelatedMap(f2, noisyReads, currentNode, indelRobot, toProcessList)
cleaner.cleaning([noisyReads,noisyReads] ,shortToLongMap, toProcessList,indelRobot, "init")
in1List, in2List, out1List, out2List, commonList, longReadToUse = cleaner.cleaning([noisyReads, noisyReads],shortToLongMap, toProcessList,indelRobot, "vote")
extendResult = extender.readExtender(in1List, in2List, out1List, out2List, commonList,indelRobot,longReadToUse, True)
2. Format of input data data :
bigDumpList.append([flankingList, repeatList, repeatPathway, flankingPathsList])
3. IO :
a) Input :
repeatSpecification.txt, phasingSeedName_Double.fasta, graph G
b) Output :
improved4.fasta
3. Algorithm:
a) reformatNoisyReads
b) reformatToProcessList
c) formShortToLongMapping
'''
json_data = open(folderName + 'repeatSpecification.txt', 'r')
loadData = json.load(json_data)
G = commonLib.seqGraph(0)
G.loadFromFile(folderName, "phaseStringGraph1")
lenDicRR = commonLib.obtainLength(folderName, "phasingSeedName_Double.fasta")
lenDicCC = commonLib.obtainLength(folderName, "improved3_Double.fasta")
N1 = len(lenDicCC)
lenDicCR = dict(lenDicCC.items() + lenDicRR.items())
for eachitem in loadData:
print eachitem
flankingList, repeatList, repeatPathway, flankingPathsList = eachitem[0], eachitem[1], eachitem[2], eachitem[3]
noisyReads, dicToOriginal, dicFromOriginal = reformatNoisyReads(folderName, flankingList, repeatList, N1)
toProcessList = reformatToProcessList(folderName , flankingList, repeatList, dicFromOriginal, N1)
shortToLongMap = formShortToLongMapping(folderName, G, toProcessList, dicFromOriginal,dicToOriginal, lenDicCR, N1 )
indelRobot = createIndelRobot(folderName)
cleaner.cleaning([noisyReads, noisyReads] , shortToLongMap, toProcessList, indelRobot, "init")
in1List, in2List, out1List, out2List, commonList, longReadToUse = cleaner.cleaning([noisyReads, noisyReads], shortToLongMap, toProcessList, indelRobot, "vote")
extendResult = extender.readExtender(in1List, in2List, out1List, out2List, commonList, indelRobot, longReadToUse, True)
if extendResult != -1:
print "extendResult: ", extendResult
assert(1==2)
def filterEdge(adjacencyList, folderName, contigFilename):
lenDic = commonLib.obtainLength(folderName, contigFilename + "_Double.fasta")
thresFoPhase = 2000
smallList, largeList = [], []
for eachitem in lenDic:
id = parseEdgeNameToID(eachitem, 'C')
if lenDic[eachitem] < thresFoPhase:
smallList.append(id)
else:
largeList.append(id)
newAdjacencyList = [[] for i in range(len(adjacencyList))]
for i in largeList:
for eachitem in adjacencyList[i]:
######## IMPORTANT:
if eachitem in largeList and eachitem / 2 != i / 2:
######## NEED TO REMOVE IN PRODUCTION if True
newAdjacencyList[i].append(eachitem)
print "len(smallList) , len(largeList): ", len(smallList) , len(largeList)
print "lenDic: ", lenDic
for eachitem in newAdjacencyList:
print "newAdjacencyList :", eachitem
return newAdjacencyList
def getAllAssociatedReads(folderName, mummerLink):
'''
Input : relatedReads.fasta, raw_reads.fasta
Output : all_associated_reads.fasta
Algorithm :
a) Get all the associated reads
b) Loop for N=1 times : ==> this correspond 4 reads to link between the bridge in total
i) Align the raws and tmp_seedReads
ii) Put the new reads into the SeedReads
'''
forFastaName = "phasingSeedName"
header, referenceFile, queryFile = "seedReads", forFastaName + ".fasta" , "raw_reads.fasta"
command = "cp " + folderName + "relatedReads.fasta " + folderName + referenceFile
os.system(command)
N = 1
for trial in range(N):
print "trial", trial
if False:
command = mummerLink + "nucmer --maxmatch --nosimplify -p " + folderName + header + " " + folderName + referenceFile + " " + folderName + queryFile
os.system(command)
command = mummerLink + "show-coords -r " + folderName + header + ".delta > " + folderName + header + "Out"
os.system(command)
dataList = commonLib.extractMumData(folderName, header + "Out")
filterList = []
lenDicRR = commonLib.obtainLength(folderName, queryFile)
print "len(dataList)", len(dataList)
for eachitem in dataList:
if checkSatisfy(eachitem, lenDicRR):
filterList.append(eachitem)
filterList.sort(key=itemgetter(-1))
newReads = []
for key, items in groupby(filterList, itemgetter(-1)):
newReads.append(key)
f = open(folderName + forFastaName + ".txt", 'w')
for eachitem in newReads:
f.write(eachitem + "\n")
f.close()
command = "perl -ne 'if(/^>(\S+)/){$c=$i{$1}}$c?print:chomp;$i{$_}=1 if @ARGV' " + folderName + forFastaName + ".txt " + folderName + "raw_reads.fasta > " + folderName + forFastaName + ".fasta"
os.system(command)
def colorNodes(folderName, mummerPath,sourceFilename, contigFilename, readsetFilename):
print "colorNodes"
lenDic = commonLib.obtainLength(folderName, sourceFilename+".fasta")
print lenDic
thresForShort = 15000
shortList = []
longList = []
for eachitem in lenDic:
if lenDic[eachitem] > thresForShort:
longList.append(eachitem)
else:
shortList.append(eachitem)
commonLib.putListToFileO(folderName, sourceFilename+".fasta", contigFilename, longList)
commonLib.putListToFileO(folderName, sourceFilename+".fasta", readsetFilename, shortList)
def connectContigs(toPhase, toRemove, toBR, folderName, mummerLink):
print "\nConnect Contigs"
tmpList = []
delThres =20000
lenDic = commonLib.obtainLength(folderName, "improved3_Double.fasta")
for eachitem in toRemove:
tmpList.append(eachitem/2)
tmpList.sort()
removeContigIndexList = []
for key, items in groupby(tmpList):
name = "Contig"+ str(key)+"_p"
if lenDic[name] < delThres:
removeContigIndexList.append(2*key)
removeContigIndexList.append(2*key+1)
print "removeContigIndexList", removeContigIndexList
### toRemove ===> remove both strand when detected
G = commonLib.seqGraph(len(lenDic))
### hack ! make the nodeIndexList to be empty for empty nodes
for eachnode in G.graphNodesList:
if eachnode.nodeIndex in removeContigIndexList:
eachnode.nodeIndexList = []
# form a graph, .condense, then use readContigOut
### add edge
for eachedge in toBR:
i = eachedge[0]/2
j = eachedge[1]/2
wt = eachedge[3]+1
print "i, j, wt", i, j, wt
G.insertEdge(i, j, wt)
tmpFileName = "xphasebonus"
G.condense()
G.saveToFile(folderName,tmpFileName )
commonLib.readContigOut(folderName, mummerLink, tmpFileName, "improved3_Double.fasta", "improved4.fasta", tmpFileName+"Open")
def checkPathLength(path, G, N1, folderName):
lenDicRR = commonLib.obtainLength(folderName, "phasingSeedName_Double.fasta")
sumLength = 0
overlapLength = 0
for index, i in zip(path, range(len(path))):
header = "Read" + str((index - N1) / 2) + "_"
if (index - N1) % 2 == 0:
header = header + "p"
else:
header = header + "d"
print "lenDicRR[header], ", lenDicRR[header], header
print (index - N1) * 2 + 1, (index - N1) * 2 + 2
sumLength = sumLength + lenDicRR[header]
if i != len(path) - 1:
for eachnext in G.graphNodesList[index].listOfNextNodes:
if eachnext[0] == path[i + 1]:
overlapLength = overlapLength + eachnext[1]
break
print sumLength, overlapLength, sumLength - overlapLength
def defineRepeatAndFlanking(folderName, mummerLink,contigFilename,contigReadGraph,repeatFilename,repeatSpec ):
'''
Input :
V a) String graph : G
V b) Repeat Pairing : repeatList
Output :
V a) chain of repeat indices (e.g. [S= R1, R33, R45, R24= E])
V b) chain of flanking region indices for in1/2 out1/2 middle (e.g. [C1, R2, R4] )
V c) in1/2 out1/2 and middle reads per repeat (e.g. [R1, R33, R45, R24])
Algorithm :
V 1. Find repeat by graph operations
V 2. Find flanking region by graph operations
V 3. Find associated reads by graph operations
'''
print "defineRepeatAndFlanking: "
# 0. Load previous data
G = commonLib.seqGraph(0)
G.loadFromFile(folderName, contigReadGraph)
Grev = formReverseGraph(G)
json_data = open(folderName + repeatFilename, 'r')
repeatList = json.load(json_data)
lenDicCC = commonLib.obtainLength(folderName, contigFilename+"_Double.fasta")
N1 = len(lenDicCC)
print "repeatList: ", repeatList
print "len(G.graphNodesList)", len(G.graphNodesList)
bigDumpList = []
print "len(repeatList)", len(repeatList) , repeatList
for r in repeatList:
rIn, rOut = [], []
for eachitem in r[0]:
rIn.append(eachitem / 2)
for eachitem in r[1]:
rOut.append(eachitem / 2)
if ( len(rIn) == 2 and len(rOut) == 2) or (len(rIn) == 1 and len(rOut) == 1):
print rIn, rOut
if (len(rIn) == 1 and len(rOut) == 1):
rIn = [rIn[0], rIn[0]]
rOut = [rOut[0], rOut[0]]
# 1. Records reachable indices
kkIn , kkOut = [], []
for eachkk in rIn:
kkIn.append(str(eachkk)+"_"+"in")
for eachkk in rOut:
kkOut.append(str(eachkk)+"_"+"out")
markReachableIndices(G, Grev, kkIn, kkOut, N1)
# 2. Marks inside nodes
singleMissList, allPassList = markInsideNodes(G, kkIn, kkOut)
for i in range(4):
print "len(singleMissList[i]), len(allPassList)", len(singleMissList[i]), len(allPassList)
# 3. Finds start/end of repeat
myStartIndex, myEndIndex = markStartEndNodes(G, rIn, rOut, singleMissList, allPassList)
print myStartIndex, myEndIndex
# 4. Find repeat interior by shortest path joining S/E
repeatPathway = markInterior(G , myStartIndex, myEndIndex, N1)
print "repeatPathway", repeatPathway
#checkPathLength(repeatPathway, G, N1, folderName)
# 5. Find flanking region by shortest path search again
flankingPathsList = markFlankingRegion(G, rIn, rOut, myStartIndex, myEndIndex, N1)
print flankingPathsList
# 6. Find associated reads by graph node query
flankingList, repeatList = markAssociatedReads(G, singleMissList, allPassList)
# ## Experimental
repeatList = allPassList
# ## End Experimental
for eachlist in flankingList:
print len(eachlist), len(repeatList)
bigDumpList.append([flankingList, repeatList, repeatPathway, flankingPathsList])
# 7. Format return and move on to the phasing
with open(folderName + repeatSpec, 'w') as outfile:
json.dump(bigDumpList, outfile)
def identifyRepeat(folderName, mummerLink,contigFilename,contigReadGraph, repeatFilename, optionToRun ):
'''
Input : Graph --- phaseStringGraph1
Output: repeat pairs { [ (1,2), (3,4) ] , [(5,6),(7,8)] }
Algorithm:
a) Reachability test on the graph to find the partners
b) Form Bipartite graph
c) Find connected component in the bipartite and define as repeat pairs
'''
# ## (a) reachability test to find partners
G = commonLib.seqGraph(0)
G.loadFromFile(folderName, contigReadGraph)
# G.reportEdge()
lenDicCC = commonLib.obtainLength(folderName, contigFilename+"_Double.fasta")
adjacencyList = [[] for i in range(len(lenDicCC))]
N1 = len(lenDicCC)
# # Debug
# for i in range(14):
# debugGraphPath(i, 2, G, N1)
# # End Debug
for i in range(len(lenDicCC)):
adjacencyList[i] = findAllReachable(i, N1, G)
print "i, adjacencyList[i] : ", i , adjacencyList[i]
# ## (b) formation of bipartite graph
if optionToRun == "tandem" :
newAdjacencyList = adjacencyList
elif optionToRun == "xphase":
newAdjacencyList = filterEdge(adjacencyList, folderName, contigFilename)
G2 = commonLib.seqGraph(N1 * 2)
for i in range(N1):
for j in newAdjacencyList[i]:
G2.insertEdge(2 * i, 2 * j + 1, 1)
G2.insertEdge(2 * j + 1, 2 * i, 1)
clusters = G2.findConnectedComponents()
repeatList = []
for eachitem in clusters:
leftList, rightList = [], []
for eachsubitem in eachitem:
if eachsubitem % 2 == 0 :
leftList.append(eachsubitem)
else:
rightList.append(eachsubitem)
repeatList.append([getDistinct(leftList), getDistinct(rightList)])
with open(folderName + repeatFilename, 'w') as outfile:
json.dump(repeatList, outfile)
json_data = open(folderName + repeatFilename, 'r')
loadData = json.load(json_data)
assert(loadData == repeatList)
def formReadContigStringGraph(folderName, mummerLink, contigFilename, readsetFilename, optTypeFileHeader, graphName):
'''
Input : all_associated_reads.fasta, improved3.fasta
Output : (G) String Graph linking the reads and contigs
Algorithm:
a) Form double reads and contigs V
b) Mummer the data and extract dataList three times V
c) Use the subroutine to output a graph V
d) Output the graph to a file phasing_String_graph.graph V
'''
G = []
commonLib.writeToFile_Double1(folderName, contigFilename + ".fasta", contigFilename + "_Double.fasta", "contig")
commonLib.writeToFile_Double1(folderName, readsetFilename + ".fasta", readsetFilename + "_Double.fasta", "reads")
header, referenceFile, queryFile = optTypeFileHeader + "CC", contigFilename + "_Double.fasta" , contigFilename + "_Double.fasta"
if True:
commonLib.useMummerAlign(mummerLink, folderName, header, referenceFile, queryFile)
lenDicCC = commonLib.obtainLength(folderName, contigFilename + "_Double.fasta")
dataListCC = commonLib.extractMumData(folderName, header + "Out")
dataListCC = filterData(dataListCC, lenDicCC)
header, referenceFile, queryFile = optTypeFileHeader + "RR", readsetFilename + "_Double.fasta" , readsetFilename + "_Double.fasta"
if True:
commonLib.useMummerAlign(mummerLink, folderName, header, referenceFile, queryFile)
lenDicRR = commonLib.obtainLength(folderName, readsetFilename + "_Double.fasta")
dataListRR = commonLib.extractMumData(folderName, header + "Out")
dataListRR = filterData(dataListRR, lenDicRR)
header, referenceFile, queryFile = optTypeFileHeader + "CR", contigFilename + "_Double.fasta" , readsetFilename + "_Double.fasta"
if True:
commonLib.useMummerAlign(mummerLink, folderName, header, referenceFile, queryFile)
lenDicCR = dict(lenDicCC.items() + lenDicRR.items())
dataListCR = commonLib.extractMumData(folderName, header + "Out")
dataListCR = filterData(dataListCR, lenDicCR)
numberOfNodes = len(lenDicCR)
G = commonLib.seqGraph(numberOfNodes)
N1, N2 = len(lenDicCC), len(lenDicRR)
print "N1, N2, numberOfNodes: ", N1, N2, numberOfNodes
'''
e.g. of dataListCC[0], dataListRR[0], dataListCR[0]
[1, 520, 2913194, 2913716, 520, 523, 99.05, 'Contig0_d', 'Contig2_d']
[1, 1383, 1253, 2603, 1383, 1351, 82.39, 'Read0_d', 'Read1705_p']
[1, 718, 4334, 5074, 718, 741, 91.91, 'Contig0_d', 'Read1018_d']
'''
# print dataListCC[0]
# print dataListRR[0]
# print dataListCR[0]
# for eachitem in dataListCC:
# print eachitem
addDataToList(dataListCC, G, 0, 0, 'C', 'C')
# for eachitem in dataListRR[0:10]:
# print eachitem , lenDicRR[eachitem[-2]], lenDicRR[eachitem[-1]]
addDataToList(dataListRR, G, N1, N1, 'R', 'R')
addDataToList(dataListCR, G, 0, N1, 'C', 'R')
# G.reportEdge()
G.saveToFile(folderName, graphName)
checkGraphLength(G, N1, lenDicRR)
# print len(G.graphNodesList[0].listOfPrevNodes), len(G.graphNodesList[0].listOfNextNodes)
print "len(G.graphNodesList)", len(G.graphNodesList)
def defineRepeatAndFlanking(folderName, mummerLink):
'''
Input :
V a) String graph : G
V b) Repeat Pairing : repeatList
Output :
V a) chain of repeat indices (e.g. [S= R1, R33, R45, R24= E])
V b) chain of flanking region indices for in1/2 out1/2 middle (e.g. [C1, R2, R4] )
V c) in1/2 out1/2 and middle reads per repeat (e.g. [R1, R33, R45, R24])
Algorithm :
V 1. Find repeat by graph operations
V 2. Find flanking region by graph operations
V 3. Find associated reads by graph operations
'''
print "defineRepeatAndFlanking: "
# 0. Load previous data
G = commonLib.seqGraph(0)
G.loadFromFile(folderName, "phaseStringGraph1")
Grev = formReverseGraph(G)
json_data = open(folderName + 'phaseRepeat.txt', 'r')
repeatList = json.load(json_data)
lenDicCC = commonLib.obtainLength(folderName, "improved3_Double.fasta")
N1 = len(lenDicCC)
print "repeatList: ", repeatList
print "len(G.graphNodesList)", len(G.graphNodesList)
bigDumpList = []
print "len(repeatList)",len(repeatList) , repeatList
for r in repeatList:
rIn, rOut = [], []
for eachitem in r[0]:
rIn.append(eachitem / 2)
for eachitem in r[1]:
rOut.append(eachitem / 2)
if len(rIn) == 2 and len(rOut) == 2:
print rIn, rOut
# 1. Records reachable indices
kkIn , kkOut = [],[]
'''
for eachnext in G.graphNodesList[4].listOfNextNodes:
print 4, eachnext
kkIn.append(eachnext[0])
for eachprev in G.graphNodesList[6].listOfPrevNodes:
print 6, eachprev
kkOut.append(eachprev[0])
print set(kkIn).intersection(set(kkOut))
print len( G.graphNodesList[0].listOfNextNodes), len( G.graphNodesList[2].listOfNextNodes)
print len( G.graphNodesList[1].listOfPrevNodes), len( G.graphNodesList[3].listOfPrevNodes)
print len( Grev.graphNodesList[0].listOfPrevNodes), len( Grev.graphNodesList[2].listOfPrevNodes)
print len( Grev.graphNodesList[1].listOfNextNodes), len( Grev.graphNodesList[3].listOfNextNodes)
'''
markReachableIndices(G, Grev, rIn, rOut, N1)
# 2. Marks inside nodes
singleMissList, allPassList = markInsideNodes(G, rIn, rOut)
for i in range(4):
print "len(singleMissList[i]), len(allPassList)", len(singleMissList[i]), len(allPassList)
# 3. Finds start/end of repeat
myStartIndex, myEndIndex = markStartEndNodes(G, rIn, rOut, singleMissList, allPassList)
print myStartIndex, myEndIndex
# 4. Find repeat interior by shortest path joining S/E
repeatPathway = markInterior(G , myStartIndex, myEndIndex, N1)
print "repeatPathway", repeatPathway
checkPathLength(repeatPathway, G, N1, folderName)
# 5. Find flanking region by shortest path search again
flankingPathsList = markFlankingRegion(G, rIn, rOut, myStartIndex, myEndIndex, N1)
print flankingPathsList
# 6. Find associated reads by graph node query
flankingList, repeatList = markAssociatedReads(G, singleMissList, allPassList)
### Experimental
repeatList = allPassList
### End Experimental
for eachlist in flankingList:
print len(eachlist), len(repeatList)
bigDumpList.append([flankingList, repeatList, repeatPathway, flankingPathsList])
# 7. Format return and move on to the phasing
with open(folderName + 'repeatSpecification.txt', 'w') as outfile:
json.dump(bigDumpList, outfile)
def defineRegionOfInterest(folderName , mummerLink):
# Form inInfo and outInfo for [ name and endUsed ]
# Define [terminating loc] for inInfo and outInfo
print "defineRegionOfInterest"
# commonLib.writeToFile_Double1(folderName, "improved3.fasta", "improved3_Double.fasta", "contig")
# commonLib.useMummerAlign(mummerLink, folderName, "phasing", "improved3_Double.fasta", "improved3_Double.fasta")
dataList = commonLib.extractMumData(folderName, "phasing" + "Out")
lenDic = commonLib.obtainLength(folderName, "improved3_Double.fasta")
print "Record length of contigs"
for eachitem in lenDic:
print lenDic[eachitem], eachitem
print "\nPerform alignment and group associated contigs"
# Convention : 0_p_L, 0_p_R, 0_d_L, 0_d_R
N = len(lenDic) * 2
clusterList = []
for i in range(N):
clusterList.append(clusterElem(i))
if i % 2 == 0:
clusterList[i].terminatingLoc = 0
else:
clusterList[i].terminatingLoc = lenDic[parseIDToName(i)[0:-2]]
oppoPairList = []
for eachitem in dataList:
terminatingLoc, resultOfCk = checkSameSideRequirement(eachitem, lenDic)
isOppMatch, pair = checkOppositeSideRequirement(eachitem, lenDic)
if isOppMatch:
index1 = parseContigName(pair[0], 'R')
index2 = parseContigName(pair[1], 'L')
oppoPairList.append([index1, index2, pair[2], pair[3]])
if resultOfCk == 'L' or resultOfCk == 'R':
index1 = parseContigName(eachitem[-2], resultOfCk)
index2 = parseContigName(eachitem[-1], resultOfCk)
union(clusterList[index1], clusterList[index2])
if resultOfCk == 'L':
if clusterList[index1].terminatingLoc < terminatingLoc[0]:
clusterList[index1].terminatingLoc = terminatingLoc[0]
if clusterList[index2].terminatingLoc < terminatingLoc[1]:
clusterList[index2].terminatingLoc = terminatingLoc[1]
elif resultOfCk == 'R':
if clusterList[index1].terminatingLoc > terminatingLoc[0]:
clusterList[index1].terminatingLoc = terminatingLoc[0]
if clusterList[index2].terminatingLoc > terminatingLoc[1]:
clusterList[index2].terminatingLoc = terminatingLoc[1]
headList = []
for eachitem in clusterList:
if find(eachitem) == eachitem:
headList.append(eachitem)
for eachitem in headList:
for eachsub in familyList(eachitem):
print parseIDToName(eachsub.id), eachsub.terminatingLoc,
print
nFamily = len(headList)
# Define the match of inInfo vs outInfo [matchList]
oppoPairList.sort()
for key, items in groupby(oppoPairList, itemgetter(0, 1)):
# print parseIDToName(key[0]), parseIDToName(key[1])
find(clusterList[key[0]]).voteList.append(key[1])
find(clusterList[key[1]]).voteList.append(key[0])
matchList = []
for eachitem in headList:
if eachitem.id % 2 == 1:
successorIndex = eachitem.findSuccessor()
if successorIndex != -1:
matchList.append([eachitem.id, successorIndex])
repeatList = []
for eachitem in matchList:
if eachitem[0] != -1 and eachitem[1] != -1:
inList = []
for eachsubitem in familyList(find(clusterList[eachitem[0]])):
inList.append([eachsubitem.id, eachsubitem.terminatingLoc])
outList = []
for eachsubitem in familyList(find(clusterList[eachitem[1]])):
outList.append([eachsubitem.id, eachsubitem.terminatingLoc])
repeatList.append([inList, outList])
# Filter the embedded contigs
globalRemoveList = []
for eachitem in repeatList:
inList = eachitem[0]
outList = eachitem[1]
toRemoveList = []
for aitem in inList:
for bitem in outList:
if aitem[0] / 2 == bitem[0] / 2 :
toRemoveList.append([aitem, bitem])
globalRemoveList.append(aitem[0] / 2)
for eachsub in toRemoveList:
if eachsub[0] in inList:
inList.remove(eachsub[0])
if eachsub[1] in outList:
outList.remove(eachsub[1])
print "\nRepeats and in/out contigs"
for i in range(len(repeatList)):
print "(repeatList[i][0]),(repeatList[i][1]): ", (repeatList[i][0]), (repeatList[i][1])
print "globalRemoveList: ", globalRemoveList
print "oppoPairList", oppoPairList
# Define the repeat
contigDic = commonLib.loadContigsFromFile(folderName, "improved3_Double.fasta")
newRepeatList = []
newBRList = []
print "\nRepeat interior and defining flanking region"
for eachrepeat in repeatList:
# ## Get the initial trial
inReadList = []
outReadList = []
for eachitem in eachrepeat[0]:
inReadList.append(eachitem[0])
for eachitem in eachrepeat[1]:
outReadList.append(eachitem[0])
tmpLink = []
for eachoppoPair in oppoPairList:
if eachoppoPair[0] in inReadList and eachoppoPair[1] in outReadList:
tmpLink = eachoppoPair
break
if len(tmpLink) > 0:
f1Read, f2Read = tmpLink[0], tmpLink[1]
f1 , a1, f2, a2 = -1, tmpLink[2], -1 , tmpLink[3]
for eachitem in eachrepeat[0]:
if eachitem[0] == f1Read:
f1 = eachitem[1]
for eachitem in eachrepeat[1]:
if eachitem[0] == f2Read:
f2 = eachitem[1]
print "f1Read, f2Read, f1, a1, f2, a2:\t ", f1Read, f2Read, f1, a1, f2, a2
f1tilde , f2tilde = f1, f2
# ## Refine it
for myrecord in dataList:
myid = parseContigName(myrecord[-2], 'R')
otherid = parseContigName(myrecord[-1], 'R')
if myid == f1Read and otherid != myid and otherid in inReadList:
if checkSameSideRequirement(myrecord, lenDic):
myStart = myrecord[0]
if myStart > f1tilde:
f1tilde = myStart
for myrecord in dataList:
myid = parseContigName(myrecord[-2], 'L')
otherid = parseContigName(myrecord[-1], 'L')
if myid == f2Read and otherid != myid and otherid in outReadList:
if checkSameSideRequirement(myrecord, lenDic):
myEnd = myrecord[1]
if myEnd < f2tilde:
f2tilde = myEnd
# ## Output the loc indices and read from the real contig to get the repeat out
print "f1Read, f2Read, f1tilde, a1, f2tilde, a2: \t", f1Read, f2Read, f1tilde, a1, f2tilde, a2
f1Read_parsed = parseIDToName(f1Read)[0:-2]
f2Read_parsed = parseIDToName(f2Read)[0:-2]
print "f1Read_parsed, f2Read_parsed", f1Read_parsed, f2Read_parsed, lenDic[f1Read_parsed], lenDic[f2Read_parsed]
if a2 < f2tilde:
repeatSegment = contigDic[f1Read_parsed][f1tilde:] + contigDic[f2Read_parsed][a2:f2tilde]
else:
repeatSegment = contigDic[f1Read_parsed][f1tilde:f2tilde - a2]
print "len(repeatSegment)", len(repeatSegment)
# ## Put to repeat, remove from repeat, add toBR
if a2 >= f2tilde or a1 <= f1tilde:
newBRList.append([f1Read, f2Read, a1, a2])
tmpSeg = [[], [], repeatSegment]
for eachin in eachrepeat[0]:
if eachin[0] != f1Read:
tmpSeg[0].append(eachin)
for eachout in eachrepeat[1]:
if eachout[0] != f2Read:
tmpSeg[1].append(eachout)
if len(tmpSeg[0]) == 1 and len(tmpSeg[1]) == 1:
# TODO
inIndex = tmpSeg[0][0][0]
outIndex = tmpSeg[1][0][0]
found = False
# if repeat exists , then fill in the blanks
# otherwise, fill 0, 0.
a1New, a2New = -1, 0
for secondrecord in dataList:
isOppMatch, pair = checkOppositeSideRequirement(secondrecord, lenDic)
if isOppMatch:
index1 = parseContigName(pair[0], 'R')
index2 = parseContigName(pair[1], 'L')
if index1 == inIndex and index2 == outIndex:
oppoPairList.append([index1, index2, pair[2], pair[3]])
if not found:
newBRList.append([inIndex, outIndex, -1, 0])
else:
newBRList.append([inIndex, outIndex, a1New, a2New])
elif len(tmpSeg[0]) >= 1 and len(tmpSeg[1]) >= 1:
newRepeatList.append(tmpSeg)
else:
if len(eachrepeat[0]) == 1 and len(eachrepeat[1]) == 1:
newBRList.append([f1Read, f2Read, a1, a2])
elif len(eachrepeat[0]) >= 1 and len(eachrepeat[1]) >= 1:
newRepeatList.append([ repeatSegment, eachrepeat[0], eachrepeat[1]])
# Format output
# Rmk: if only 1 copy is left, addToBR; if 0 left, remove that repeat
toPhase = newRepeatList
toRemove = globalRemoveList
toBR = newBRList
print "Items to be returned to next step:"
print "toPhase", len(toPhase)
print "toRemove", len(toRemove)
print "toBR", len(toBR) , toBR
connectContigs(toPhase, toRemove, toBR, folderName, mummerLink)
def resolvingTandem(folderName, mummerPath, contigReadGraph,contigFilename, readsetFilename, optTypeFileHeader, repeatSpec):
print "resolvingTandem"
'''
Input : repeat info
Output : count, join.
Algorithm:
1. Find loops
2. Form repeat
3. Form chain of repeat copies back to back
4. Align reads
5. Calculate extra bases beyond flanking region
6. Calculate count
7. Join the contigs
'''
# 0 ) Load all the data
G = commonLib.seqGraph(0)
G.loadFromFile(folderName, contigReadGraph)
lenDicCC = commonLib.obtainLength(folderName, contigFilename+"_Double.fasta")
N1 = len(lenDicCC)
maxDuplicate = 10
repeatTempFilename = "tandemRepeatTemplate.fasta"
mummerFile = "myTandemRepeatTemplate"
myContigsDic = commonLib.loadContigsFromFile(folderName, readsetFilename+"_Double.fasta")
lenDicRR = commonLib.obtainLength(folderName, readsetFilename + "_Double.fasta")
header = optTypeFileHeader + "RR"
dataListRR = commonLib.extractMumData(folderName, header + "Out")
dataListRR = newPhasing.filterData(dataListRR, lenDicRR)
dataListRRDic = {}
for eachitem in dataListRR:
if eachitem[1] > eachitem[3]:
dataListRRDic[eachitem[-2] +";"+eachitem[-1]] = eachitem[4]
header = optTypeFileHeader + "CR"
lenDicCC = commonLib.obtainLength(folderName, contigFilename + "_Double.fasta")
lenDicCR = dict(lenDicCC.items() + lenDicRR.items())
dataListCR = commonLib.extractMumData(folderName, header + "Out")
dataListCR = newPhasing.filterData(dataListCR, lenDicCR)
dataListCRDic = {}
for eachitem in dataListCR:
if eachitem[1] > eachitem[3]:
dataListCRDic[eachitem[-2] +";"+eachitem[-1]] = eachitem[4]
print dataListCRDic
json_data = open(folderName + repeatSpec, 'r')
loadData = json.load(json_data)
contigsTmp = commonLib.loadContigsFromFile(folderName, contigFilename+"_Double.fasta")
readTmp = commonLib.loadContigsFromFile(folderName, readsetFilename + "_Double.fasta")
happyTandemList = {}
for eachrepProfile in loadData:
# 1)
startContig = eachrepProfile[-1][0][0]
isTerminate, returnPathList = DFSwithPath(G, G.graphNodesList[startContig], [startContig], N1, False)
# 2)
if isTerminate:
v = returnPathList[-1]
i =0
tandemPath = []
while i < len(returnPathList):
if returnPathList[i] == v:
tandemPath = returnPathList[i:]
i = len(returnPathList)
i = i +1
print returnPathList
print tandemPath
# 3) [fix it when have time later ; to just use graph; bug at the min thing]
repeatContent = ""
for kk in range(len(tandemPath[0:-1])):
eachitem = tandemPath[kk]- N1
nextitem = tandemPath[kk+1] - N1
readName = "Read" + str(eachitem/2) + "_"
nextReadName = "Read" + str(nextitem/2) + "_"
if eachitem %2 ==0 :
readName = readName + "p"
elif eachitem %2 ==1:
readName = readName + "d"
if nextitem %2 ==0 :
nextReadName = nextReadName + "p"
elif nextitem %2 ==1:
nextReadName = nextReadName + "d"
overlap = dataListRRDic[readName + ";" + nextReadName]
print overlap
repeatContent = repeatContent + myContigsDic[readName][0:-overlap]
print "len(repeatContent)", len(repeatContent)
fout = open(folderName + repeatTempFilename, 'w')
fout.write(">RepeatSegment\n")
repeatContentLarge = ""
for i in range(maxDuplicate):
fout.write(repeatContent)
repeatContentLarge= repeatContentLarge + repeatContent
fout.close()
# 4)
repeatReadList = eachrepProfile[1]
myList= []
for eachitem in repeatReadList:
readName = "Read" + str((eachitem- N1)/2) + "_"
if eachitem %2 ==0 :
readName = readName + "p"
elif eachitem %2 ==1:
readName = readName + "d"
myList.append(readName)
commonLib.putListToFileO(folderName, readsetFilename+"_Double.fasta", "toAlignReads", myList)
if True:
commonLib.useMummerAlign(mummerPath, folderName,mummerFile , repeatTempFilename, "toAlignReads.fasta")
dataList = commonLib.extractMumData(folderName, mummerFile+"Out")
# 5)
totalBasesMatch = 0
lrepeat = len(repeatContent)
c = 50 # Important parameters : FIX needed in production
#lengthDic = commonLib.obtainLength(folderName, readsetFilename+"_Double.fasta")
print "dataList[0]", dataList[0]
dataList.sort(key = itemgetter(-1))
for key, values in groupby(dataList,itemgetter(-1)):
maxValue = -1
for eachsub in values:
if eachsub[5] > maxValue:
maxValue = eachsub[5]
#print key, maxValue
totalBasesMatch = totalBasesMatch + maxValue
print c, lrepeat, totalBasesMatch
ct = totalBasesMatch*1.0/(c*lrepeat)
print "BIG NUMBER of THE DAY: ", ct
# 6)
# a) find the starting point
startContig = eachrepProfile[-1][0][0]
firstRead = eachrepProfile[-1][0][1]-N1
contigName = "Contig"+ str(startContig/2)
if startContig %2 == 0:
contigName = contigName + "_p"
elif startContig%2 ==1:
contigName = contigName + "_d"
readName = "Read"+ str(firstRead/2)
if firstRead %2 == 0:
readName = readName + "_p"
elif firstRead%2 ==1:
readName = readName + "_d"
overlapFirst = dataListCRDic[contigName+";"+readName]
tmpCombine = contigsTmp[contigName][0:-overlapFirst] + readTmp[readName]
f1 = open(folderName + "firstOverlap.fasta", 'w')
f1.write(">combined\n")
f1.write(tmpCombine)
f1.close()
if True:
commonLib.useMummerAlign(mummerPath, folderName,"myFirstOverlap" , repeatTempFilename, "firstOverlap.fasta")
dataList = commonLib.extractMumData(folderName, "myFirstOverlap"+"Out")
dataList.sort(key = itemgetter(0))
maxVal = -1
maxItm = []
for eachi in dataList:
if eachi[5] > maxVal:
maxVal = eachi[5]
maxItm = eachi
print maxItm
repeatStart = maxItm[0]
contigEnd = maxItm[2]
# b) format return : prepare the repeat template
print "ct*lrepeat", int(repeatStart + ct*lrepeat)
print "repeatStart", repeatStart
happyTandemList[contigName]= repeatContentLarge[repeatStart:int(repeatStart + ct*lrepeat)]
contigsTmp[contigName] = tmpCombine[0:contigEnd]
print "len(contigsTmp[contigName])", len(contigsTmp[contigName])
print "len(happyTandemList[contigName])", len(happyTandemList[contigName])
# 7) Combine all the repeat information and do the join
leaderList = [i for i in range(len(contigsTmp))]
for eachrepProfile in loadData:
startContig = eachrepProfile[-1][0][0]
endContig = eachrepProfile[-1][-1][-1]
leaderContig = leaderList[startContig]
leaderName = parseIDToName(leaderContig)
endName = parseIDToName(endContig)
startName = parseIDToName(startContig)
contigsTmp[leaderName] = contigsTmp[leaderName] + happyTandemList[startName]
if endContig != leaderContig:
contigsTmp[leaderName] = contigsTmp[leaderName] + contigsTmp[endName]
contigsTmp[endName] = ""
leaderList[endContig] = leaderContig
leaderAgg = [[] for i in range(len(leaderList))]
for i in range(len(leaderList)):
leaderAgg[leaderList[i]].append(i)
checkingList = [False for i in range(N1)]
fout = open(folderName + "tademResolved.fasta", 'w')
counter = 0
for eachcontig in contigsTmp:
id = newPhasing.parseEdgeNameToID(eachcontig, 'C')
if checkingList[id/2] == False:
fout.write(">Segkk"+str(counter)+ "\n")
fout.write(contigsTmp[eachcontig])
counter = counter + 1
for eachkk in leaderAgg[leaderList[id]]:
checkingList[eachkk/2] = True
fout.close()
