class GraphletsConstraints(RWEngineBase):
__printConds = False
def __init__(self, nodeGradesInfos):
self.nodeGradesInfos = nodeGradesInfos
self.sol = None
# a field is somthing seperated by " " , an argument is a list of params seperated by "," ; a member is a param seperated by "+"
def breakCommand(self, cmd):
cmdFields = seperateCmd(cmd)
if len(cmdFields) == 0:
print "asd"
assert (len(cmdFields) > 0)
if len(cmdFields) == 1:
return {
'nemonic': cmdFields[0],
'nemonicWithDecoretors': " ".join(cmdFields[0:-1]),
'ParamsList': []
}
else:
return {
'nemonic': cmdFields[0],
'nemonicWithDecoretors': " ".join(cmdFields[0:-1]),
'ParamsList': cmdFields[-1].split(",")
}
#TODO - add to this..
lvalCmdsStarts = ["mov", "sub", "add", "xor"]
def getNemonicType(self, nemonic):
if any(
map(lambda startString: nemonic.startswith(startString),
self.lvalCmdsStarts)):
return "WriteThenRead"
else:
return "Read"
FuncPrefix = "f"
VARPrefix = "s"
RegisterPrefix = "r"
OffsetPrefix = "o"
OtherPrefix = "X"
def getPrefix(self, Str):
if isVarStr(Str):
return self.VARPrefix
elif isRegisterStr(Str):
return self.RegisterPrefix
elif isOffset(Str):
return self.OffsetPrefix
else:
return self.OtherPrefix
def varsEqual(self, v1, v2):
return v1 == v2
def checkInputVsTarget(self, target):
def retFunc(inputVal):
return inputVal == target
return retFunc
def getVarName(self, prefix, lineNumber, varsInThisLine):
return prefix + str(lineNumber) + "-" + str(varsInThisLine) + "_TAR"
def getMembers(self, param):
refMembers = param.split("+")
refMembers[0] = refMembers[0][1:] #remove [ from first
refMembers[-1] = refMembers[-1][
0:-1] # remove ] from last (they can be the same one!)
return refMembers
def getDomains(self):
domains = {
self.FuncPrefix: set(),
self.VARPrefix: set(),
self.RegisterPrefix: set(),
self.OffsetPrefix: set()
}
def getCmdSymbols(cmd):
cmdBasicInfo = self.breakCommand(cmd)
for param in cmdBasicInfo['ParamsList']:
if param.startswith("["):
for member in self.getMembers(param):
yield member
else:
yield param
def getCmds(cmdsDelimited):
return filter(None, cmdsDelimited.split(";"))
for cmdList in itertools.imap(
lambda nodeGradesInfo: getCmds(nodeGradesInfo['refCode']),
self.nodeGradesInfos):
for cmd in cmdList:
if isCall(cmd):
prefix = self.FuncPrefix
domains[prefix].add(list(getCmdSymbols(cmd))[0])
else:
for symbol in getCmdSymbols(cmd):
prefix = self.getPrefix(symbol)
if prefix != self.OtherPrefix:
domains[prefix].add(symbol)
for domainName in domains.keys():
domains[domainName] = list(domains[domainName])
return domains
def callSol(self):
domains = self.getDomains()
#domains[refPrefix].add(refVal)
self.problem = Problem(MinConflictsSolver())
tarSymbolsCache = {}
self.varsInThisLine = 0
def addInTraceletCons(tarVal, newVarName):
if (self.__printConds):
print "CONS(IN) -> " + tarSymbolsCache[
tarVal] + " == " + newVarName
self.problem.addConstraint(self.varsEqual,
[newVarName, tarSymbolsCache[tarVal]])
def addCrossTraceletCons(refVal, newVarName, refPrefix):
if (self.__printConds):
print "CONS(CROSS) -> " + newVarName + " == " + refVal
self.problem.addConstraint(self.checkInputVsTarget(refVal),
[newVarName])
def addVarWithPrefix(prefix, lineNumber):
newVarName = self.getVarName(prefix, lineNumber,
self.varsInThisLine)
if len(domains[prefix]) == 0:
print "EMP"
self.problem.addVariables([newVarName], domains[prefix])
self.varsInThisLine += 1
return newVarName
# mode can be - WRITE or NORMAL
def doDF(refSymbol, tarSymbol, lineNumber, refPrefix, tarPrefix,
nemonicType):
if refPrefix == self.OtherPrefix or tarPrefix == self.OtherPrefix:
return
newVarName = addVarWithPrefix(tarPrefix, lineNumber)
if (refPrefix == tarPrefix):
addCrossTraceletCons(refSymbol, newVarName, refPrefix)
if tarSymbol in tarSymbolsCache:
addInTraceletCons(tarSymbol, newVarName)
if tarPrefix != self.RegisterPrefix or nemonicType == "WriteThenRead":
tarSymbolsCache[tarSymbol] = newVarName
#for matchedCmd in itertools.chain(map(lambda nodeInfo:nodeInfo['matchedCmds'],self.nodeGradesInfos)):
tarBase = 0
refBase = 0
for nodeInfo in self.nodeGradesInfos:
for matchedCmd in nodeInfo['matchedCmds']:
self.varsInThisLine = 1
# if these cmds are not an operational match, we cannot cross tracelet match them.
if matchedCmd['operationMatch'] == True:
currentLineNumber = tarBase + matchedCmd[
'tarCmdNum'] # matchedCmd['tarCmdNum'] is 1 based so we are ok
if matchedCmd['tar'] == "" or matchedCmd['ref'] == "":
continue
tarCmdBasicInfo = self.breakCommand(matchedCmd['tar'])
refCmdBasicInfo = self.breakCommand(matchedCmd['ref'])
if len(tarCmdBasicInfo['ParamsList']) > 0 and len(
refCmdBasicInfo['ParamsList']) > 0:
if tarCmdBasicInfo['nemonic'] == 'call':
assert (len(refCmdBasicInfo['ParamsList']) == 1)
assert (len(tarCmdBasicInfo['ParamsList']) == 1)
doDF(refCmdBasicInfo['ParamsList'][0],
tarCmdBasicInfo['ParamsList'][0],
currentLineNumber, self.FuncPrefix,
self.FuncPrefix, "Read")
else:
nemonicType = self.getNemonicType(
tarCmdBasicInfo['nemonic'])
for (refParam, tarParam) in zip(
refCmdBasicInfo['ParamsList'],
tarCmdBasicInfo['ParamsList']):
tarIsMem = "[" in tarParam
if tarIsMem != ("[" in refParam):
continue
print matchedCmd
print "BOY"
assert tarIsMem == ("[" in refParam)
if not tarIsMem:
tarPreFix = self.getPrefix(tarParam)
refPreFix = self.getPrefix(refParam)
doDF(refParam, tarParam, currentLineNumber,
tarPreFix, refPreFix, nemonicType)
# TODO - return this to find more classes when we have time...
"""
if nemonicType == "WriteThenRead":
if tarPreFix != self.RegisterPrefix:
print matchedCmd
assert (tarPreFix == self.RegisterPrefix)
# the write is only to the left most param, rest are normal
"""
else:
# this is memory! , first remove '[',']'
for (refMember, tarMember) in zip(
self.getMembers(refParam),
self.getMembers(tarParam)):
tarPreFix = self.getPrefix(tarMember)
refPreFix = self.getPrefix(refMember)
doDF(refMember, tarMember,
currentLineNumber, tarPreFix,
refPreFix, nemonicType)
nemonicType = "Read"
#TODO handle the False clause ?
tarBase += nodeInfo['tarCode'].count(";")
refBase += nodeInfo['refCode'].count(";")
self.sol = self.problem.getSolution()
#print self.sol
def getBrokenNumber(self):
return self.problem.getSolver().getHack()
# TODO - make this __
def getRW(self):
sol = self.getSolution()
tarBase = 0
symbolsCache = {}
self.varsInThisLine = 0
TotalLineNumber = 0
def getRewrittenSymbolUpdateCache(prefix, symbol):
varName = self.getVarName(prefix, TotalLineNumber,
self.varsInThisLine)
if sol != None and varName in sol:
symbolsCache[symbol] = sol[varName]
return sol[varName]
else:
return symbol
def rewrittenParam(param):
if param.startswith("["):
rewrittenMembers = []
for member in self.getMembers(param):
rewrittenMembers.append(
getRewrittenSymbolUpdateCache(self.getPrefix(member),
member))
self.varsInThisLine += 1
return "[" + "+".join(rewrittenMembers) + "]"
else:
newParam = getRewrittenSymbolUpdateCache(
self.getPrefix(param), param)
self.varsInThisLine += 1
return newParam
for nodeInfo in self.nodeGradesInfos:
cmdsStr = nodeInfo['tarCode']
rewrittenCmds = []
lastLineNumber = 0 #filter(None,)
for (lineNumber, cmd) in enumerate(cmdsStr.split(";")):
TotalLineNumber = tarBase + lineNumber + 1 # we are one based
lastLineNumber = lineNumber + 1 # we are one based
self.varsInThisLine = 1
if cmd != "":
tarCmdBasicInfo = self.breakCommand(cmd)
if len(tarCmdBasicInfo['ParamsList']) > 0:
if tarCmdBasicInfo['nemonic'] == 'call':
rewrittenCmds.append(
"call " + getRewrittenSymbolUpdateCache(
self.FuncPrefix,
tarCmdBasicInfo['ParamsList'][0]))
else:
rewrittenCmds.append(
tarCmdBasicInfo['nemonicWithDecoretors'] +
" " + ",".join(
map(rewrittenParam,
tarCmdBasicInfo['ParamsList'])))
else:
rewrittenCmds.append(cmd)
else:
# this mostly cuz of bugs, but if i wont accumidate them it will cause a bad grade for nothing..(everything else wont be aligned)
rewrittenCmds.append(cmd)
tarBase += lastLineNumber - 1
yield ";".join(rewrittenCmds)
def getSolution(self):
if self.sol == None:
self.callSol()
return self.sol
def printSol(self, sol):
#better call sol!
if sol == None:
print "NO SOL!"
return
last = 1
for key in sorted(sol.iterkeys()):
if int(key[1:2]) != last:
last = int(key[1:2])
print ""
print key + ": " + sol[key] + " ",
class GraphletsConstraints(X86AnalyzerBase):
#__registers32Bit = ["eax","ebx","ecx","edx","esi","edi","ebp","esp"]
__dictNames = ['ref', 'tar']
__printConds = False
def __init__(self, nodeGradesInfos=[]):
X86AnalyzerBase.__init__(self, nodeGradesInfos)
self.problem = Problem(MinConflictsSolver())
# this is to make it human readable ..
# we will generator the solution only when we need it and then cache it
# TODO make __
self.sol = None
for key in self.rewriteDict.keys():
self.rewriteDict[key]['symbolCache'] = {}
self.rewriteDict[key]['curLine'] = 1
self.rewriteDict[key]['curPos'] = 1
self.createRewrite()
def getEmptyDict(self):
d = X86AnalyzerBase.getEmptyDict(self)
for key in d.keys():
d[key]['transitions'] = []
d[key]['valuesTrackDict'] = {}
#if key != self.REGISTER:
d[key]['domain'] = set()
#self.rewriteDict[key]['inCmdCounter'] = 1
return d
# this will add recorded value to dict, even if there is a conflict it will be recorded...
#
def insertToDictWithType(self,
tarCmdNum,
fromStr,
refCmdNum,
toStr,
typeStr,
dict2insert=None):
assert (dict2insert != None)
dict2insert[typeStr]['transitions'].append((tarCmdNum, fromStr, toStr))
#if typeStr != self.REGISTER:
dict2insert[typeStr]['domain'].add(toStr)
def commitChanges(self, tmpDict):
for key in self.rewriteDict.keys():
self.rewriteDict[key]['transitions'].extend(
tmpDict[key]['transitions'])
#if key != self.REGISTER:
self.rewriteDict[key]['domain'].update(tmpDict[key]['domain'])
# black list has no generation:) , we can use the rwdict type as they are the same..
def getRewriteWithType(self, tarCmdNum, fromStr, typeStr,
FoundBlacklistElement):
if self.sol == None:
self.callSol()
if self.rewriteDict[typeStr]['curLine'] < tarCmdNum:
self.rewriteDict[typeStr]['curLine'] = tarCmdNum
self.rewriteDict[typeStr]['curPos'] = 1
varName = self.getVarName(self.getShort(typeStr), tarCmdNum,
self.rewriteDict[typeStr]['curPos'])
self.rewriteDict[typeStr]['curPos'] += 1
if self.sol != None and varName in self.sol:
# we have a value! update cache and return it
newVal = self.sol[varName]
self.rewriteDict[typeStr]['symbolCache'][fromStr] = newVal
return newVal
elif fromStr in self.rewriteDict[typeStr]['symbolCache']:
return self.rewriteDict[typeStr]['symbolCache'][fromStr]
else:
#not found in this type's map in this generation, return original
return fromStr
def getShort(self, name):
if name == self.FUNCNAME:
return "f"
elif name == self.VAR:
return "m"
elif name == self.REGISTER:
return "r"
else:
raise hell
def getVarName(self, preFix, curLine, curPos):
return preFix + str(curLine) + "-" + str(curPos) + "_TAR"
# TODO - make this __
def callSol(self):
# we need to go over each dict that is useable, and feed vars and constraints
for typeDict in [
x for x in self.rewriteDict.keys()
if self.rewriteDict[x]['useAble'] == True
]:
curLine = 1
curPos = 1
preFix = self.getShort(typeDict)
#if typeDict != self.REGISTER:
domain = list(self.rewriteDict[typeDict]['domain'])
#else:
# domain =self.__registers32Bit
for (line, tarStr,
refStr) in self.rewriteDict[typeDict]['transitions']:
if curLine < line:
curPos = 1
curLine = line
tarName = self.getVarName(preFix, curLine, curPos)
self.problem.addVariables([tarName], domain)
if (self.__printConds):
print "CONS(text) -> " + tarName + " == " + refStr
self.problem.addConstraint(self.checkInputVsTarget(refStr),
[tarName])
if tarStr in self.rewriteDict[typeDict][
'valuesTrackDict'] != None:
if (self.__printConds):
print "CONS(bag) -> " + self.rewriteDict[typeDict][
'valuesTrackDict'][tarStr] + " == " + tarName
self.problem.addConstraint(self.varsEqual, [
tarName,
self.rewriteDict[typeDict]['valuesTrackDict'][tarStr]
])
self.rewriteDict[typeDict]['valuesTrackDict'][tarStr] = tarName
curPos += 1
self.sol = self.problem.getSolution()
if traceHack:
print "(Number of broken - " + str(
self.problem.getSolver().getHack()) + ")",
def varsEqual(self, v1, v2):
return v1 == v2
def checkInputVsTarget(self, target):
def retFunc(inputVal):
return inputVal == target
return retFunc
def getSolution(self):
if self.sol == None:
self.callSol()
return self.sol
def printSol(self, sol):
#better call sol!
if sol == None:
print "NO SOL!"
return
last = 1
for key in sorted(sol.iterkeys()):
if int(key[1:2]) != last:
last = int(key[1:2])
print ""
print key + ": " + sol[key] + " ",
def getBrokenNumber(self):
return self.problem.getSolver().getHack()
class GraphletsConstraints(X86AnalyzerBase):
#__registers32Bit = ["eax","ebx","ecx","edx","esi","edi","ebp","esp"]
__dictNames = ['ref','tar']
__printConds = False
def __init__(self,nodeGradesInfos=[]):
X86AnalyzerBase.__init__(self,nodeGradesInfos)
self.problem = Problem(MinConflictsSolver())
# this is to make it human readable ..
# we will generator the solution only when we need it and then cache it
# TODO make __
self.sol = None
for key in self.rewriteDict.keys():
self.rewriteDict[key]['symbolCache'] = {}
self.rewriteDict[key]['curLine'] = 1
self.rewriteDict[key]['curPos'] = 1
self.createRewrite()
def getEmptyDict(self):
d = X86AnalyzerBase.getEmptyDict(self)
for key in d.keys():
d[key]['transitions'] = []
d[key]['valuesTrackDict'] = {}
#if key != self.REGISTER:
d[key]['domain'] = set()
#self.rewriteDict[key]['inCmdCounter'] = 1
return d
# this will add recorded value to dict, even if there is a conflict it will be recorded...
#
def insertToDictWithType(self,tarCmdNum,fromStr,refCmdNum,toStr,typeStr,dict2insert=None):
assert(dict2insert != None)
dict2insert[typeStr]['transitions'].append((tarCmdNum,fromStr,toStr))
#if typeStr != self.REGISTER:
dict2insert[typeStr]['domain'].add(toStr)
def commitChanges(self,tmpDict):
for key in self.rewriteDict.keys():
self.rewriteDict[key]['transitions'].extend(tmpDict[key]['transitions'])
#if key != self.REGISTER:
self.rewriteDict[key]['domain'].update(tmpDict[key]['domain'])
# black list has no generation:) , we can use the rwdict type as they are the same..
def getRewriteWithType(self,tarCmdNum,fromStr,typeStr,FoundBlacklistElement):
if self.sol == None:
self.callSol()
if self.rewriteDict[typeStr]['curLine'] < tarCmdNum :
self.rewriteDict[typeStr]['curLine'] = tarCmdNum
self.rewriteDict[typeStr]['curPos'] = 1
varName = self.getVarName(self.getShort(typeStr), tarCmdNum, self.rewriteDict[typeStr]['curPos'])
self.rewriteDict[typeStr]['curPos'] += 1
if self.sol != None and varName in self.sol:
# we have a value! update cache and return it
newVal = self.sol[varName]
self.rewriteDict[typeStr]['symbolCache'][fromStr] = newVal
return newVal
elif fromStr in self.rewriteDict[typeStr]['symbolCache']:
return self.rewriteDict[typeStr]['symbolCache'][fromStr]
else:
#not found in this type's map in this generation, return original
return fromStr
def getShort(self,name):
if name == self.FUNCNAME:
return "f"
elif name == self.VAR:
return "m"
elif name == self.REGISTER:
return "r"
else :
raise hell
def getVarName(self,preFix,curLine,curPos):
return preFix + str(curLine) + "-" + str(curPos) + "_TAR"
# TODO - make this __
def callSol(self):
# we need to go over each dict that is useable, and feed vars and constraints
for typeDict in [x for x in self.rewriteDict.keys() if self.rewriteDict[x]['useAble']==True ]:
curLine = 1
curPos = 1
preFix = self.getShort(typeDict)
#if typeDict != self.REGISTER:
domain = list(self.rewriteDict[typeDict]['domain'])
#else:
# domain =self.__registers32Bit
for (line,tarStr,refStr) in self.rewriteDict[typeDict]['transitions']:
if curLine < line:
curPos = 1
curLine = line
tarName = self.getVarName(preFix, curLine, curPos)
self.problem.addVariables([tarName],domain)
if (self.__printConds):
print "CONS(text) -> " + tarName + " == " + refStr
self.problem.addConstraint(self.checkInputVsTarget(refStr),[tarName])
if tarStr in self.rewriteDict[typeDict]['valuesTrackDict'] != None:
if (self.__printConds):
print "CONS(bag) -> " + self.rewriteDict[typeDict]['valuesTrackDict'][tarStr] + " == " + tarName
self.problem.addConstraint(self.varsEqual,[tarName,self.rewriteDict[typeDict]['valuesTrackDict'][tarStr]])
self.rewriteDict[typeDict]['valuesTrackDict'][tarStr] = tarName
curPos+=1
self.sol = self.problem.getSolution()
if traceHack:
print "(Number of broken - " + str(self.problem.getSolver().getHack()) + ")",
def varsEqual(self,v1, v2):
return v1==v2
def checkInputVsTarget(self,target):
def retFunc(inputVal):
return inputVal == target
return retFunc
def getSolution(self):
if self.sol == None:
self.callSol()
return self.sol
def printSol(self,sol):
#better call sol!
if sol == None:
print "NO SOL!"
return
last = 1
for key in sorted(sol.iterkeys()):
if int(key[1:2]) != last:
last = int(key[1:2])
print ""
print key + ": " + sol[key] + " ",
def getBrokenNumber(self):
return self.problem.getSolver().getHack()
class GraphletsConstraints(RWEngineBase):
__printConds = False
def __init__(self,nodeGradesInfos):
self.nodeGradesInfos = nodeGradesInfos
self.sol = None
# a field is somthing seperated by " " , an argument is a list of params seperated by "," ; a member is a param seperated by "+"
def breakCommand(self,cmd):
cmdFields = seperateCmd(cmd)
if len(cmdFields) ==0:
print "asd"
assert (len(cmdFields) >0)
if len(cmdFields) == 1 :
return {'nemonic':cmdFields[0],'nemonicWithDecoretors':" ".join(cmdFields[0:-1]),'ParamsList':[]}
else:
return {'nemonic':cmdFields[0],'nemonicWithDecoretors':" ".join(cmdFields[0:-1]),'ParamsList':cmdFields[-1].split(",")}
#TODO - add to this..
lvalCmdsStarts = ["mov","sub","add","xor"]
def getNemonicType(self,nemonic):
if any(map(lambda startString: nemonic.startswith(startString),self.lvalCmdsStarts)):
return "WriteThenRead"
else:
return "Read"
FuncPrefix = "f"
VARPrefix = "s"
RegisterPrefix = "r"
OffsetPrefix = "o"
OtherPrefix = "X"
def getPrefix(self,Str):
if isVarStr(Str):
return self.VARPrefix
elif isRegisterStr(Str):
return self.RegisterPrefix
elif isOffset(Str):
return self.OffsetPrefix
else:
return self.OtherPrefix
def varsEqual(self,v1, v2):
return v1==v2
def checkInputVsTarget(self,target):
def retFunc(inputVal):
return inputVal == target
return retFunc
def getVarName(self,prefix,lineNumber,varsInThisLine):
return prefix + str(lineNumber) + "-" + str(varsInThisLine) + "_TAR"
def getMembers(self,param):
refMembers = param.split("+")
refMembers[0] = refMembers[0][1:] #remove [ from first
refMembers[-1] = refMembers[-1][0:-1] # remove ] from last (they can be the same one!)
return refMembers
def getDomains(self):
domains = {self.FuncPrefix:set(),self.VARPrefix:set(),self.RegisterPrefix:set(),self.OffsetPrefix:set()}
def getCmdSymbols(cmd):
cmdBasicInfo = self.breakCommand(cmd)
for param in cmdBasicInfo['ParamsList']:
if param.startswith("["):
for member in self.getMembers(param):
yield member
else:
yield param
def getCmds(cmdsDelimited):
return filter(None,cmdsDelimited.split(";"))
for cmdList in itertools.imap(lambda nodeGradesInfo:getCmds(nodeGradesInfo['refCode']),self.nodeGradesInfos):
for cmd in cmdList:
if isCall(cmd):
prefix = self.FuncPrefix
domains[prefix].add(list(getCmdSymbols(cmd))[0])
else:
for symbol in getCmdSymbols(cmd):
prefix = self.getPrefix(symbol)
if prefix != self.OtherPrefix:
domains[prefix].add(symbol)
for domainName in domains.keys():
domains[domainName] = list(domains[domainName])
return domains
def callSol(self):
domains = self.getDomains()
#domains[refPrefix].add(refVal)
self.problem = Problem(MinConflictsSolver())
tarSymbolsCache = {}
self.varsInThisLine = 0
def addInTraceletCons(tarVal,newVarName):
if (self.__printConds):
print "CONS(IN) -> " + tarSymbolsCache[tarVal] + " == " + newVarName
self.problem.addConstraint(self.varsEqual,[newVarName,tarSymbolsCache[tarVal]])
def addCrossTraceletCons(refVal,newVarName,refPrefix):
if (self.__printConds):
print "CONS(CROSS) -> " + newVarName + " == " + refVal
self.problem.addConstraint(self.checkInputVsTarget(refVal),[newVarName])
def addVarWithPrefix(prefix,lineNumber):
newVarName = self.getVarName(prefix,lineNumber,self.varsInThisLine)
if len(domains[prefix]) == 0:
print "EMP"
self.problem.addVariables([newVarName],domains[prefix])
self.varsInThisLine+=1
return newVarName
# mode can be - WRITE or NORMAL
def doDF(refSymbol,tarSymbol,lineNumber,refPrefix,tarPrefix,nemonicType):
if refPrefix == self.OtherPrefix or tarPrefix == self.OtherPrefix:
return
newVarName = addVarWithPrefix(tarPrefix,lineNumber)
if (refPrefix == tarPrefix):
addCrossTraceletCons(refSymbol,newVarName,refPrefix)
if tarSymbol in tarSymbolsCache:
addInTraceletCons(tarSymbol,newVarName)
if tarPrefix != self.RegisterPrefix or nemonicType=="WriteThenRead":
tarSymbolsCache[tarSymbol] = newVarName
#for matchedCmd in itertools.chain(map(lambda nodeInfo:nodeInfo['matchedCmds'],self.nodeGradesInfos)):
tarBase = 0
refBase = 0
for nodeInfo in self.nodeGradesInfos:
for matchedCmd in nodeInfo['matchedCmds']:
self.varsInThisLine = 1
# if these cmds are not an operational match, we cannot cross tracelet match them.
if matchedCmd['operationMatch'] == True:
currentLineNumber = tarBase + matchedCmd['tarCmdNum'] # matchedCmd['tarCmdNum'] is 1 based so we are ok
if matchedCmd['tar'] =="" or matchedCmd['ref'] =="":
continue
tarCmdBasicInfo = self.breakCommand(matchedCmd['tar'])
refCmdBasicInfo = self.breakCommand(matchedCmd['ref'])
if len(tarCmdBasicInfo['ParamsList'])>0 and len(refCmdBasicInfo['ParamsList'])>0:
if tarCmdBasicInfo['nemonic'] == 'call':
assert(len(refCmdBasicInfo['ParamsList'])==1)
assert(len(tarCmdBasicInfo['ParamsList'])==1)
doDF(refCmdBasicInfo['ParamsList'][0], tarCmdBasicInfo['ParamsList'][0], currentLineNumber, self.FuncPrefix,self.FuncPrefix, "Read")
else:
nemonicType = self.getNemonicType(tarCmdBasicInfo['nemonic'])
for (refParam,tarParam) in zip(refCmdBasicInfo['ParamsList'],tarCmdBasicInfo['ParamsList']):
tarIsMem = "[" in tarParam
if tarIsMem != ("[" in refParam):
continue
print matchedCmd
print "BOY"
assert tarIsMem == ("[" in refParam)
if not tarIsMem:
tarPreFix = self.getPrefix(tarParam)
refPreFix = self.getPrefix(refParam)
doDF(refParam, tarParam, currentLineNumber, tarPreFix,refPreFix, nemonicType)
# TODO - return this to find more classes when we have time...
"""
if nemonicType == "WriteThenRead":
if tarPreFix != self.RegisterPrefix:
print matchedCmd
assert (tarPreFix == self.RegisterPrefix)
# the write is only to the left most param, rest are normal
"""
else:
# this is memory! , first remove '[',']'
for (refMember,tarMember) in zip(self.getMembers(refParam),self.getMembers(tarParam)):
tarPreFix = self.getPrefix(tarMember)
refPreFix = self.getPrefix(refMember)
doDF(refMember, tarMember, currentLineNumber, tarPreFix,refPreFix, nemonicType)
nemonicType = "Read"
#TODO handle the False clause ?
tarBase += nodeInfo['tarCode'].count(";")
refBase += nodeInfo['refCode'].count(";")
self.sol = self.problem.getSolution()
#print self.sol
def getBrokenNumber(self):
return self.problem.getSolver().getHack()
# TODO - make this __
def getRW(self):
sol = self.getSolution()
tarBase = 0
symbolsCache = {}
self.varsInThisLine = 0
TotalLineNumber = 0
def getRewrittenSymbolUpdateCache(prefix,symbol):
varName = self.getVarName(prefix, TotalLineNumber, self.varsInThisLine)
if sol != None and varName in sol:
symbolsCache[symbol] = sol[varName]
return sol[varName]
else:
return symbol
def rewrittenParam(param):
if param.startswith("["):
rewrittenMembers = []
for member in self.getMembers(param):
rewrittenMembers.append(getRewrittenSymbolUpdateCache(self.getPrefix(member), member))
self.varsInThisLine+=1
return "[" + "+".join(rewrittenMembers) + "]"
else:
newParam = getRewrittenSymbolUpdateCache(self.getPrefix(param), param)
self.varsInThisLine+=1
return newParam
for nodeInfo in self.nodeGradesInfos:
cmdsStr = nodeInfo['tarCode']
rewrittenCmds = []
lastLineNumber = 0 #filter(None,)
for (lineNumber,cmd) in enumerate(cmdsStr.split(";")):
TotalLineNumber = tarBase + lineNumber + 1 # we are one based
lastLineNumber = lineNumber +1 # we are one based
self.varsInThisLine = 1
if cmd != "":
tarCmdBasicInfo = self.breakCommand(cmd)
if len(tarCmdBasicInfo['ParamsList'])>0:
if tarCmdBasicInfo['nemonic'] == 'call':
rewrittenCmds.append("call " + getRewrittenSymbolUpdateCache(self.FuncPrefix,tarCmdBasicInfo['ParamsList'][0]))
else:
rewrittenCmds.append(tarCmdBasicInfo['nemonicWithDecoretors'] + " " + ",".join(map(rewrittenParam,tarCmdBasicInfo['ParamsList'])))
else:
rewrittenCmds.append(cmd)
else:
# this mostly cuz of bugs, but if i wont accumidate them it will cause a bad grade for nothing..(everything else wont be aligned)
rewrittenCmds.append(cmd)
tarBase += lastLineNumber-1
yield ";".join(rewrittenCmds)
def getSolution(self):
if self.sol == None:
self.callSol()
return self.sol
def printSol(self,sol):
#better call sol!
if sol == None:
print "NO SOL!"
return
last = 1
for key in sorted(sol.iterkeys()):
if int(key[1:2]) != last:
last = int(key[1:2])
print ""
print key + ": " + sol[key] + " ",