def run(self):
files=self.parser.getArgs()[0:]
if len(files)==1 and path.isdir(files[0]):
sol=SolutionDirectory(
self.parser.getArgs()[0],
archive=None,
parallel=self.opts.parallelTimes,
paraviewLink=False)
self.processTimestepOptions(sol)
if len(self.opts.time)<1:
self.error("No time specified")
globStr=self.parser.getArgs()[0]
if self.opts.parallelTimes:
globStr=path.join(globStr,"processor*")
usedTime=sol.timeName(self.opts.time[0])
globStr=path.join(globStr,
usedTime,
"uniform","profiling*")
files=glob(globStr)
print_("Profiling info from time",usedTime)
if len(files)<1:
self.error("No profiling data found")
elif len(files)>1:
lst=[]
for f in files:
lst.append(self.readProfilingInfo(f))
dataAll,children0,root0=lst[0]
for i in dataAll:
d=dataAll[i]
d["totalTimeMin"]=d["totalTime"]
d["totalTimeMax"]=d["totalTime"]
d["callsMin"]=d["calls"]
d["callsMax"]=d["calls"]
for data,children,root in lst[1:]:
if root0!=root or children!=children0 or data.keys()!=dataAll.keys():
self.error("Inconsistent profiling data. Probably not from same run/timestep")
for i in data:
d=data[i]
s=dataAll[i]
s["totalTime"]+=d["totalTime"]
s["totalTimeMin"]=min(s["totalTimeMin"],d["totalTime"])
s["totalTimeMax"]=max(s["totalTimeMax"],d["totalTime"])
s["calls"]+=d["calls"]
s["callsMin"]=min(s["callsMin"],d["calls"])
s["callsMax"]=max(s["callsMax"],d["calls"])
s["childTime"]+=d["childTime"]
for i in dataAll:
d=dataAll[i]
d["totalTime"]=d["totalTime"]/len(lst)
d["childTime"]=d["childTime"]/len(lst)
d["calls"]=d["calls"]/len(lst)
self.printProfilingInfo(dataAll,children,root,True)
else:
data,children,root=self.readProfilingInfo(files[0])
self.printProfilingInfo(data,children,root)
def run(self):
files = self.parser.getArgs()[0:]
if len(files) == 1 and path.isdir(files[0]):
sol = SolutionDirectory(self.parser.getArgs()[0],
archive=None,
parallel=self.opts.parallelTimes,
paraviewLink=False)
self.processTimestepOptions(sol)
if len(self.opts.time) < 1:
self.error("No time specified")
globStr = self.parser.getArgs()[0]
if self.opts.parallelTimes:
globStr = path.join(globStr, "processor*")
usedTime = sol.timeName(self.opts.time[0])
globStr = path.join(globStr, usedTime, "uniform", "profiling*")
files = glob(globStr)
print_("Profiling info from time", usedTime)
if len(files) < 1:
self.error("No profiling data found")
elif len(files) > 1:
lst = []
for f in files:
lst.append(self.readProfilingInfo(f))
dataAll, children0, root0 = lst[0]
for i in dataAll:
d = dataAll[i]
d["totalTimeMin"] = d["totalTime"]
d["totalTimeMax"] = d["totalTime"]
d["callsMin"] = d["calls"]
d["callsMax"] = d["calls"]
for data, children, root in lst[1:]:
if root0 != root or children != children0 or data.keys(
) != dataAll.keys():
self.error(
"Inconsistent profiling data. Probably not from same run/timestep"
)
for i in data:
d = data[i]
s = dataAll[i]
s["totalTime"] += d["totalTime"]
s["totalTimeMin"] = min(s["totalTimeMin"], d["totalTime"])
s["totalTimeMax"] = max(s["totalTimeMax"], d["totalTime"])
s["calls"] += d["calls"]
s["callsMin"] = min(s["callsMin"], d["calls"])
s["callsMax"] = max(s["callsMax"], d["calls"])
s["childTime"] += d["childTime"]
for i in dataAll:
d = dataAll[i]
d["totalTime"] = d["totalTime"] / len(lst)
d["childTime"] = d["childTime"] / len(lst)
d["calls"] = d["calls"] / len(lst)
self.printProfilingInfo(dataAll, children, root, True)
else:
data, children, root = self.readProfilingInfo(files[0])
self.printProfilingInfo(data, children, root)
def doRegion(self, theRegion):
ReST = RestructuredTextHelper(defaultHeading=self.opts.headingLevel)
if self.opts.allRegions:
print_(
ReST.buildHeading("Region: ",
theRegion,
level=self.opts.headingLevel - 1))
sol = SolutionDirectory(self.parser.getArgs()[0],
archive=None,
parallel=self.opts.parallel,
paraviewLink=False,
region=theRegion)
if self.opts.all:
self.opts.caseSize = True
self.opts.shortBCreport = True
self.opts.longBCreport = True
self.opts.dimensions = True
self.opts.internal = True
self.opts.linearSolvers = True
self.opts.relaxationFactors = True
self.opts.processorMatrix = True
self.opts.decomposition = True
if self.opts.time:
try:
self.opts.time = sol.timeName(
sol.timeIndex(self.opts.time, minTime=True))
except IndexError:
error("The specified time", self.opts.time,
"doesn't exist in the case")
print_("Using time t=" + self.opts.time + "\n")
needsPolyBoundaries = False
needsInitialTime = False
if self.opts.longBCreport:
needsPolyBoundaries = True
needsInitialTime = True
if self.opts.shortBCreport:
needsPolyBoundaries = True
needsInitialTime = True
if self.opts.dimensions:
needsInitialTime = True
if self.opts.internal:
needsInitialTime = True
if self.opts.decomposition:
needsPolyBoundaries = True
defaultProc = None
if self.opts.parallel:
defaultProc = 0
if needsPolyBoundaries:
proc = None
boundary = BoundaryDict(
sol.name,
region=theRegion,
time=self.opts.time,
treatBinaryAsASCII=self.opts.boundaryTreatBinaryAsASCII,
processor=defaultProc)
boundMaxLen = 0
boundaryNames = []
for b in boundary:
if b.find("procBoundary") != 0:
boundaryNames.append(b)
if self.opts.patches != None:
tmp = boundaryNames
boundaryNames = []
for b in tmp:
for p in self.opts.patches:
if fnmatch(b, p):
boundaryNames.append(b)
break
if self.opts.expatches != None:
tmp = boundaryNames
boundaryNames = []
for b in tmp:
keep = True
for p in self.opts.expatches:
if fnmatch(b, p):
keep = False
break
if keep:
boundaryNames.append(b)
for b in boundaryNames:
boundMaxLen = max(boundMaxLen, len(b))
boundaryNames.sort()
if self.opts.time == None:
procTime = "constant"
else:
procTime = self.opts.time
if needsInitialTime:
fields = {}
if self.opts.time == None:
try:
time = sol.timeName(0)
except IndexError:
error("There is no timestep in the case")
else:
time = self.opts.time
tDir = sol[time]
nameMaxLen = 0
for f in tDir:
try:
fields[f.baseName()] = f.getContent(
listLengthUnparsed=self.opts.longlist,
treatBinaryAsASCII=self.opts.treatBinaryAsASCII,
doMacroExpansion=self.opts.doMacros)
nameMaxLen = max(nameMaxLen, len(f.baseName()))
except PyFoamParserError:
e = sys.exc_info()[
1] # Needed because python 2.5 does not support 'as e'
warning("Couldn't parse", f.name, "because of an error:",
e, " -> skipping")
fieldNames = list(fields.keys())
fieldNames.sort()
if self.opts.caseSize:
print_(ReST.heading("Size of the case"))
nFaces = 0
nPoints = 0
nCells = 0
if self.opts.parallel:
procs = list(range(sol.nrProcs()))
print_("Accumulated from", sol.nrProcs(), "processors")
else:
procs = [None]
for p in procs:
info = MeshInformation(sol.name,
processor=p,
region=theRegion,
time=self.opts.time)
nFaces += info.nrOfFaces()
nPoints += info.nrOfPoints()
try:
nCells += info.nrOfCells()
except:
nCells = "Not available"
tab = ReST.table()
tab[0] = ("Faces", nFaces)
tab[1] = ("Points", nPoints)
tab[2] = ("Cells", nCells)
print_(tab)
if self.opts.decomposition:
print_(ReST.heading("Decomposition"))
if sol.nrProcs() < 2:
print_("This case is not decomposed")
else:
print_("Case is decomposed for", sol.nrProcs(), "processors")
print_()
nCells = []
nFaces = []
nPoints = []
for p in sol.processorDirs():
info = MeshInformation(sol.name,
processor=p,
region=theRegion,
time=self.opts.time)
nPoints.append(info.nrOfPoints())
nFaces.append(info.nrOfFaces())
nCells.append(info.nrOfCells())
digits = int(
ceil(
log10(
max(sol.nrProcs(), max(nCells), max(nFaces),
max(nPoints))))) + 2
nameLen = max(len("Points"), boundMaxLen)
tab = ReST.table()
tab[0] = ["CPU"] + list(range(sol.nrProcs()))
tab.addLine()
tab[1] = ["Points"] + nPoints
tab[2] = ["Faces"] + nFaces
tab[3] = ["Cells"] + nCells
tab.addLine(head=True)
nr = 3
for b in boundaryNames:
nr += 1
tab[(nr, 0)] = b
for i, p in enumerate(sol.processorDirs()):
try:
nFaces = ParsedBoundaryDict(
sol.boundaryDict(processor=p,
region=theRegion,
time=self.opts.time),
treatBinaryAsASCII=self.opts.
boundaryTreatBinaryAsASCII)[b]["nFaces"]
except IOError:
nFaces = ParsedBoundaryDict(
sol.boundaryDict(processor=p,
region=theRegion),
treatBinaryAsASCII=self.opts.
boundaryTreatBinaryAsASCII)[b]["nFaces"]
except KeyError:
nFaces = 0
tab[(nr, i + 1)] = nFaces
print_(tab)
if self.opts.longBCreport:
print_(ReST.heading("The boundary conditions for t =", time))
for b in boundaryNames:
print_(
ReST.buildHeading("Boundary: ",
b,
level=self.opts.headingLevel + 1))
bound = boundary[b]
print_(":Type:\t", bound["type"])
if "physicalType" in bound:
print_(":Physical:\t", bound["physicalType"])
print_(":Faces:\t", bound["nFaces"])
print_()
heads = ["Field", "type"]
tab = ReST.table()
tab[0] = heads
tab.addLine(head=True)
for row, fName in enumerate(fieldNames):
tab[(row + 1, 0)] = fName
f = fields[fName]
if "boundaryField" not in f:
tab[(row + 1, 1)] = "Not a field file"
elif b not in f["boundaryField"]:
tab[(row + 1, 1)] = "MISSING !!!"
else:
bf = f["boundaryField"][b]
for k in bf:
try:
col = heads.index(k)
except ValueError:
col = len(heads)
tab[(0, col)] = k
heads.append(k)
cont = str(bf[k])
if type(bf[k]) == Field:
if bf[k].isBinary():
cont = bf[k].binaryString()
if cont.find("\n") >= 0:
tab[(row + 1,
col)] = cont[:cont.find("\n")] + "..."
else:
tab[(row + 1, col)] = cont
print_(tab)
if self.opts.shortBCreport:
print_(ReST.heading("Table of boundary conditions for t =", time))
types = {}
hasPhysical = False
for b in boundary:
if "physicalType" in boundary[b]:
hasPhysical = True
types[b] = {}
for fName in fields:
f = fields[fName]
try:
if b not in f["boundaryField"]:
types[b][fName] = "MISSING"
else:
types[b][fName] = f["boundaryField"][b]["type"]
except KeyError:
types[b][fName] = "Not a field"
tab = ReST.table()
tab[0] = [""] + boundaryNames
tab.addLine()
tab[(1, 0)] = "Patch Type"
for i, b in enumerate(boundaryNames):
tab[(1, i + 1)] = boundary[b]["type"]
nr = 2
if hasPhysical:
tab[(nr, 0)] = "Physical Type"
for i, b in enumerate(boundaryNames):
if "physicalType" in boundary[b]:
tab[(nr, i + 1)] = boundary[b]["physicalType"]
nr += 1
tab[(nr, 0)] = "Length"
for i, b in enumerate(boundaryNames):
tab[(nr, i + 1)] = boundary[b]["nFaces"]
nr += 1
tab.addLine(head=True)
for fName in fieldNames:
tab[(nr, 0)] = fName
for i, b in enumerate(boundaryNames):
tab[(nr, i + 1)] = types[b][fName]
nr += 1
print_(tab)
if self.opts.dimensions:
print_(ReST.heading("Dimensions of fields for t =", time))
tab = ReST.table()
tab[0] = ["Name"] + "[ kg m s K mol A cd ]".split()[1:-1]
tab.addLine(head=True)
for i, fName in enumerate(fieldNames):
f = fields[fName]
try:
dim = str(f["dimensions"]).split()[1:-1]
except KeyError:
dim = ["-"] * 7
tab[i + 1] = [fName] + dim
print_(tab)
if self.opts.internal:
print_(ReST.heading("Internal value of fields for t =", time))
tab = ReST.table()
tab[0] = ["Name", "Value"]
tab.addLine(head=True)
for i, fName in enumerate(fieldNames):
f = fields[fName]
try:
if f["internalField"].isBinary():
val = f["internalField"].binaryString()
else:
cont = str(f["internalField"])
if cont.find("\n") >= 0:
val = cont[:cont.find("\n")] + "..."
else:
val = cont
except KeyError:
val = "Not a field file"
tab[i + 1] = [fName, val]
print_(tab)
if self.opts.processorMatrix:
print_(ReST.heading("Processor matrix"))
if sol.nrProcs() < 2:
print_("This case is not decomposed")
else:
matrix = [[
0,
] * sol.nrProcs() for i in range(sol.nrProcs())]
for i, p in enumerate(sol.processorDirs()):
try:
bound = ParsedBoundaryDict(
sol.boundaryDict(processor=p,
region=theRegion,
time=self.opts.time),
treatBinaryAsASCII=self.opts.
boundaryTreatBinaryAsASCII)
except IOError:
bound = ParsedBoundaryDict(
sol.boundaryDict(processor=p,
treatBinaryAsASCII=self.opts.
boundaryTreatBinaryAsASCII,
region=theRegion),
treatBinaryAsASCII=self.opts.
boundaryTreatBinaryAsASCII)
for j in range(sol.nrProcs()):
name = "procBoundary%dto%d" % (j, i)
name2 = "procBoundary%dto%d" % (i, j)
if name in bound:
matrix[i][j] = bound[name]["nFaces"]
if name2 in bound:
matrix[i][j] = bound[name2]["nFaces"]
print_("Matrix of processor interactions (faces)")
print_()
tab = ReST.table()
tab[0] = ["CPU"] + list(range(sol.nrProcs()))
tab.addLine(head=True)
for i, col in enumerate(matrix):
tab[i + 1] = [i] + matrix[i]
print_(tab)
if self.opts.linearSolvers:
print_(ReST.heading("Linear Solvers"))
linTable = ReST.table()
fvSol = ParsedParameterFile(
path.join(sol.systemDir(), "fvSolution"),
treatBinaryAsASCII=self.opts.treatBinaryAsASCII)
allInfo = {}
for sName in fvSol["solvers"]:
raw = fvSol["solvers"][sName]
info = {}
if type(raw) in [dict, DictProxy]:
# fvSolution format in 1.7
try:
info["solver"] = raw["solver"]
except KeyError:
info["solver"] = "<none>"
solverData = raw
else:
info["solver"] = raw[0]
solverData = raw[1]
if type(solverData) in [dict, DictProxy]:
try:
info["tolerance"] = solverData["tolerance"]
except KeyError:
info["tolerance"] = 1.
try:
info["relTol"] = solverData["relTol"]
except KeyError:
info["relTol"] = 0.
else:
# the old (pre-1.5) fvSolution-format
info["tolerance"] = solverData
info["relTol"] = raw[2]
allInfo[sName] = info
linTable[0] = ["Name", "Solver", "Abs. Tolerance", "Relative Tol."]
linTable.addLine(head=True)
nr = 0
for n, i in iteritems(allInfo):
nr += 1
linTable[nr] = (n, i["solver"], i["tolerance"], i["relTol"])
print_(linTable)
if self.opts.relaxationFactors:
print_(ReST.heading("Relaxation"))
fvSol = ParsedParameterFile(
path.join(sol.systemDir(), "fvSolution"),
treatBinaryAsASCII=self.opts.treatBinaryAsASCII)
if "relaxationFactors" in fvSol:
relax = fvSol["relaxationFactors"]
tab = ReST.table()
tab[0] = ["Name", "Factor"]
tab.addLine(head=True)
nr = 0
if "fields" in relax or "equations" in relax:
# New syntax
for k in ["fields", "equations"]:
if k in relax:
for n, f in iteritems(relax[k]):
nr += 1
tab[nr] = [k + ": " + n, f]
else:
for n, f in iteritems(relax):
nr += 1
tab[nr] = [n, f]
print_(tab)
else:
print_("No relaxation factors defined for this case")
def doRegion(self,theRegion):
ReST=RestructuredTextHelper(defaultHeading=self.opts.headingLevel)
if self.opts.allRegions:
print_(ReST.buildHeading("Region: ",theRegion,level=self.opts.headingLevel-1))
sol=SolutionDirectory(self.parser.getArgs()[0],
archive=None,
parallel=self.opts.parallel,
paraviewLink=False,
region=theRegion)
if self.opts.all:
self.opts.caseSize=True
self.opts.shortBCreport=True
self.opts.longBCreport=True
self.opts.dimensions=True
self.opts.internal=True
self.opts.linearSolvers=True
self.opts.relaxationFactors=True
self.opts.processorMatrix=True
self.opts.decomposition=True
if self.opts.time:
try:
self.opts.time=sol.timeName(sol.timeIndex(self.opts.time,minTime=True))
except IndexError:
error("The specified time",self.opts.time,"doesn't exist in the case")
print_("Using time t="+self.opts.time+"\n")
needsPolyBoundaries=False
needsInitialTime=False
if self.opts.longBCreport:
needsPolyBoundaries=True
needsInitialTime=True
if self.opts.shortBCreport:
needsPolyBoundaries=True
needsInitialTime=True
if self.opts.dimensions:
needsInitialTime=True
if self.opts.internal:
needsInitialTime=True
if self.opts.decomposition:
needsPolyBoundaries=True
defaultProc=None
if self.opts.parallel:
defaultProc=0
if needsPolyBoundaries:
proc=None
boundary=BoundaryDict(sol.name,
region=theRegion,
time=self.opts.time,
treatBinaryAsASCII=self.opts.treatBinaryAsASCII,
processor=defaultProc)
boundMaxLen=0
boundaryNames=[]
for b in boundary:
if b.find("procBoundary")!=0:
boundaryNames.append(b)
if self.opts.patches!=None:
tmp=boundaryNames
boundaryNames=[]
for b in tmp:
for p in self.opts.patches:
if fnmatch(b,p):
boundaryNames.append(b)
break
if self.opts.expatches!=None:
tmp=boundaryNames
boundaryNames=[]
for b in tmp:
keep=True
for p in self.opts.expatches:
if fnmatch(b,p):
keep=False
break
if keep:
boundaryNames.append(b)
for b in boundaryNames:
boundMaxLen=max(boundMaxLen,len(b))
boundaryNames.sort()
if self.opts.time==None:
procTime="constant"
else:
procTime=self.opts.time
if needsInitialTime:
fields={}
if self.opts.time==None:
try:
time=sol.timeName(0)
except IndexError:
error("There is no timestep in the case")
else:
time=self.opts.time
tDir=sol[time]
nameMaxLen=0
for f in tDir:
try:
fields[f.baseName()]=f.getContent(listLengthUnparsed=self.opts.longlist,
treatBinaryAsASCII=self.opts.treatBinaryAsASCII,
doMacroExpansion=self.opts.doMacros)
nameMaxLen=max(nameMaxLen,len(f.baseName()))
except PyFoamParserError:
e = sys.exc_info()[1] # Needed because python 2.5 does not support 'as e'
warning("Couldn't parse",f.name,"because of an error:",e," -> skipping")
fieldNames=list(fields.keys())
fieldNames.sort()
if self.opts.caseSize:
print_(ReST.heading("Size of the case"))
nFaces=0
nPoints=0
nCells=0
if self.opts.parallel:
procs=list(range(sol.nrProcs()))
print_("Accumulated from",sol.nrProcs(),"processors")
else:
procs=[None]
for p in procs:
info=MeshInformation(sol.name,
processor=p,
region=theRegion,
time=self.opts.time)
nFaces+=info.nrOfFaces()
nPoints+=info.nrOfPoints()
try:
nCells+=info.nrOfCells()
except:
nCells="Not available"
tab=ReST.table()
tab[0]=("Faces",nFaces)
tab[1]=("Points",nPoints)
tab[2]=("Cells",nCells)
print_(tab)
if self.opts.decomposition:
print_(ReST.heading("Decomposition"))
if sol.nrProcs()<2:
print_("This case is not decomposed")
else:
print_("Case is decomposed for",sol.nrProcs(),"processors")
print_()
nCells=[]
nFaces=[]
nPoints=[]
for p in sol.processorDirs():
info=MeshInformation(sol.name,
processor=p,
region=theRegion,
time=self.opts.time)
nPoints.append(info.nrOfPoints())
nFaces.append(info.nrOfFaces())
nCells.append(info.nrOfCells())
digits=int(ceil(log10(max(sol.nrProcs(),
max(nCells),
max(nFaces),
max(nPoints)
))))+2
nameLen=max(len("Points"),boundMaxLen)
tab=ReST.table()
tab[0]=["CPU"]+list(range(sol.nrProcs()))
tab.addLine()
tab[1]=["Points"]+nPoints
tab[2]=["Faces"]+nFaces
tab[3]=["Cells"]+nCells
tab.addLine(head=True)
nr=3
for b in boundaryNames:
nr+=1
tab[(nr,0)]=b
for i,p in enumerate(sol.processorDirs()):
try:
nFaces= ParsedBoundaryDict(sol.boundaryDict(processor=p,
region=theRegion,
time=self.opts.time),
treatBinaryAsASCII=self.opts.treatBinaryAsASCII
)[b]["nFaces"]
except IOError:
nFaces= ParsedBoundaryDict(sol.boundaryDict(processor=p,
region=theRegion),
treatBinaryAsASCII=self.opts.treatBinaryAsASCII
)[b]["nFaces"]
except KeyError:
nFaces=0
tab[(nr,i+1)]=nFaces
print_(tab)
if self.opts.longBCreport:
print_(ReST.heading("The boundary conditions for t =",time))
for b in boundaryNames:
print_(ReST.buildHeading("Boundary: ",b,level=self.opts.headingLevel+1))
bound=boundary[b]
print_(":Type:\t",bound["type"])
if "physicalType" in bound:
print_(":Physical:\t",bound["physicalType"])
print_(":Faces:\t",bound["nFaces"])
print_()
heads=["Field","type"]
tab=ReST.table()
tab[0]=heads
tab.addLine(head=True)
for row,fName in enumerate(fieldNames):
tab[(row+1,0)]=fName
f=fields[fName]
if "boundaryField" not in f:
tab[(row+1,1)]="Not a field file"
elif b not in f["boundaryField"]:
tab[(row+1,1)]="MISSING !!!"
else:
bf=f["boundaryField"][b]
for k in bf:
try:
col=heads.index(k)
except ValueError:
col=len(heads)
tab[(0,col)]=k
heads.append(k)
cont=str(bf[k])
if type(bf[k])==Field:
if bf[k].isBinary():
cont= bf[k].binaryString()
if cont.find("\n")>=0:
tab[(row+1,col)]=cont[:cont.find("\n")]+"..."
else:
tab[(row+1,col)]=cont
print_(tab)
if self.opts.shortBCreport:
print_(ReST.heading("Table of boundary conditions for t =",time))
types={}
hasPhysical=False
for b in boundary:
if "physicalType" in boundary[b]:
hasPhysical=True
types[b]={}
for fName in fields:
f=fields[fName]
try:
if b not in f["boundaryField"]:
types[b][fName]="MISSING"
else:
types[b][fName]=f["boundaryField"][b]["type"]
except KeyError:
types[b][fName]="Not a field"
tab=ReST.table()
tab[0]=[""]+boundaryNames
tab.addLine()
tab[(1,0)]="Patch Type"
for i,b in enumerate(boundaryNames):
tab[(1,i+1)]=boundary[b]["type"]
nr=2
if hasPhysical:
tab[(nr,0)]="Physical Type"
for i,b in enumerate(boundaryNames):
if "physicalType" in boundary[b]:
tab[(nr,i+1)]=boundary[b]["physicalType"]
nr+=1
tab[(nr,0)]="Length"
for i,b in enumerate(boundaryNames):
tab[(nr,i+1)]=boundary[b]["nFaces"]
nr+=1
tab.addLine(head=True)
for fName in fieldNames:
tab[(nr,0)]=fName
for i,b in enumerate(boundaryNames):
tab[(nr,i+1)]=types[b][fName]
nr+=1
print_(tab)
if self.opts.dimensions:
print_(ReST.heading("Dimensions of fields for t =",time))
tab=ReST.table()
tab[0]=["Name"]+"[ kg m s K mol A cd ]".split()[1:-1]
tab.addLine(head=True)
for i,fName in enumerate(fieldNames):
f=fields[fName]
try:
dim=str(f["dimensions"]).split()[1:-1]
except KeyError:
dim=["-"]*7
tab[i+1]=[fName]+dim
print_(tab)
if self.opts.internal:
print_(ReST.heading("Internal value of fields for t =",time))
tab=ReST.table()
tab[0]=["Name","Value"]
tab.addLine(head=True)
for i,fName in enumerate(fieldNames):
f=fields[fName]
try:
if f["internalField"].isBinary():
val=f["internalField"].binaryString()
else:
cont=str(f["internalField"])
if cont.find("\n")>=0:
val=cont[:cont.find("\n")]+"..."
else:
val=cont
except KeyError:
val="Not a field file"
tab[i+1]=[fName,val]
print_(tab)
if self.opts.processorMatrix:
print_(ReST.heading("Processor matrix"))
if sol.nrProcs()<2:
print_("This case is not decomposed")
else:
matrix=[ [0,]*sol.nrProcs() for i in range(sol.nrProcs())]
for i,p in enumerate(sol.processorDirs()):
try:
bound=ParsedBoundaryDict(sol.boundaryDict(processor=p,
region=theRegion,
time=self.opts.time)
,treatBinaryAsASCII=self.opts.treatBinaryAsASCII)
except IOError:
bound=ParsedBoundaryDict(sol.boundaryDict(processor=p,
treatBinaryAsASCII=self.opts.treatBinaryAsASCII,
region=theRegion)
,treatBinaryAsASCII=self.opts.treatBinaryAsASCII)
for j in range(sol.nrProcs()):
name="procBoundary%dto%d" %(j,i)
name2="procBoundary%dto%d" %(i,j)
if name in bound:
matrix[i][j]=bound[name]["nFaces"]
if name2 in bound:
matrix[i][j]=bound[name2]["nFaces"]
print_("Matrix of processor interactions (faces)")
print_()
tab=ReST.table()
tab[0]=["CPU"]+list(range(sol.nrProcs()))
tab.addLine(head=True)
for i,col in enumerate(matrix):
tab[i+1]=[i]+matrix[i]
print_(tab)
if self.opts.linearSolvers:
print_(ReST.heading("Linear Solvers"))
linTable=ReST.table()
fvSol=ParsedParameterFile(path.join(sol.systemDir(),"fvSolution"),
treatBinaryAsASCII=self.opts.treatBinaryAsASCII)
allInfo={}
for sName in fvSol["solvers"]:
raw=fvSol["solvers"][sName]
info={}
if type(raw) in [dict,DictProxy]:
# fvSolution format in 1.7
info["solver"]=raw["solver"]
solverData=raw
else:
info["solver"]=raw[0]
solverData=raw[1]
if type(solverData) in [dict,DictProxy]:
try:
info["tolerance"]=solverData["tolerance"]
except KeyError:
info["tolerance"]=1.
try:
info["relTol"]=solverData["relTol"]
except KeyError:
info["relTol"]=0.
else:
# the old (pre-1.5) fvSolution-format
info["tolerance"]=solverData
info["relTol"]=raw[2]
allInfo[sName]=info
linTable[0]=["Name","Solver","Abs. Tolerance","Relative Tol."]
linTable.addLine(head=True)
nr=0
for n,i in iteritems(allInfo):
nr+=1
linTable[nr]=(n,i["solver"],i["tolerance"],i["relTol"])
print_(linTable)
if self.opts.relaxationFactors:
print_(ReST.heading("Relaxation"))
fvSol=ParsedParameterFile(path.join(sol.systemDir(),"fvSolution"),
treatBinaryAsASCII=self.opts.treatBinaryAsASCII)
if "relaxationFactors" in fvSol:
tab=ReST.table()
tab[0]=["Name","Factor"]
tab.addLine(head=True)
nr=0
for n,f in iteritems(fvSol["relaxationFactors"]):
nr+=1
tab[nr]=[n,f]
print_(tab)
else:
print_("No relaxation factors defined for this case")
def doRegion(self, theRegion):
ReST = RestructuredTextHelper(defaultHeading=self.opts.headingLevel)
if self.opts.allRegions:
print ReST.buildHeading("Region: ", theRegion, level=self.opts.headingLevel - 1)
sol = SolutionDirectory(
self.parser.getArgs()[0], archive=None, parallel=self.opts.parallel, paraviewLink=False, region=theRegion
)
if self.opts.all:
self.opts.caseSize = True
self.opts.shortBCreport = True
self.opts.longBCreport = True
self.opts.dimensions = True
self.opts.internal = True
self.opts.linearSolvers = True
self.opts.relaxationFactors = True
self.opts.processorMatrix = True
self.opts.decomposition = True
if self.opts.time:
try:
self.opts.time = sol.timeName(sol.timeIndex(self.opts.time, minTime=True))
except IndexError:
error("The specified time", self.opts.time, "doesn't exist in the case")
print "Using time t=" + self.opts.time + "\n"
needsPolyBoundaries = False
needsInitialTime = False
if self.opts.longBCreport:
needsPolyBoundaries = True
needsInitialTime = True
if self.opts.shortBCreport:
needsPolyBoundaries = True
needsInitialTime = True
if self.opts.dimensions:
needsInitialTime = True
if self.opts.internal:
needsInitialTime = True
if self.opts.decomposition:
needsPolyBoundaries = True
defaultProc = None
if self.opts.parallel:
defaultProc = 0
if needsPolyBoundaries:
proc = None
boundary = BoundaryDict(sol.name, region=theRegion, time=self.opts.time, processor=defaultProc)
boundMaxLen = 0
boundaryNames = []
for b in boundary:
if b.find("procBoundary") != 0:
boundaryNames.append(b)
if self.opts.patches != None:
tmp = boundaryNames
boundaryNames = []
for b in tmp:
for p in self.opts.patches:
if fnmatch(b, p):
boundaryNames.append(b)
break
if self.opts.expatches != None:
tmp = boundaryNames
boundaryNames = []
for b in tmp:
keep = True
for p in self.opts.expatches:
if fnmatch(b, p):
keep = False
break
if keep:
boundaryNames.append(b)
for b in boundaryNames:
boundMaxLen = max(boundMaxLen, len(b))
boundaryNames.sort()
if self.opts.time == None:
procTime = "constant"
else:
procTime = self.opts.time
if needsInitialTime:
fields = {}
if self.opts.time == None:
try:
time = sol.timeName(0)
except IndexError:
error("There is no timestep in the case")
else:
time = self.opts.time
tDir = sol[time]
nameMaxLen = 0
for f in tDir:
try:
fields[f.baseName()] = f.getContent(
listLengthUnparsed=self.opts.longlist, doMacroExpansion=self.opts.doMacros
)
nameMaxLen = max(nameMaxLen, len(f.baseName()))
except PyFoamParserError, e:
warning("Couldn't parse", f.name, "because of an error:", e, " -> skipping")
fieldNames = fields.keys()
fieldNames.sort()