edmStreamStallGrapher Namespace Reference

Classes
class	Point
class	Stack
class	StallMonitorParser
class	StreamInfoElement
class	TracerParser

Functions
def	adjacentDiff (*pairLists)
def	chooseParser (inputFile)
def	consolidateContiguousBlocks (numStreams, streamInfo)
def	createAsciiImage (processingSteps, numStreams, maxNameSize)
def	createModuleTiming (processingSteps, numStreams)
def	createPDFImage (pdfFile, shownStacks, processingSteps, numStreams, stalledModuleInfo, displayExternalWork, checkOrder, setXAxis, xLower, xUpper)
def	findStalledModules (processingSteps, numStreams)
def	getTime (line)
def	mergeContiguousBlocks (blocks)
def	parseTracerOutput (f)
def	plotPerStreamAboveFirstAndPrepareStack (points, allStackTimes, ax, stream, height, streamHeightCut, doPlot, addToStackTimes, color, threadOffset)
def	printHelp ()
def	printStalledModulesInOrder (stalledModules)
def	processingStepsFromStallMonitorOutput (f, moduleNames)
def	readLogFile (inputFile)
def	reduceSortedPoints (ps)

Variables
	action
	args
	checkOrder
	const
	default
	description
	dest
	displayExternalWork
	doGraphic
	doModuleTimings
	epilog
	extension
	formatter_class
	help
	inputFile
	kSourceDelayedRead
	kSourceFindEvent
	metavar
	nargs
	parser
	pdfFile
	reader
	setXAxis
	shownStacks
	stackType
	stalledModules
	supported_filetypes
	type
	xLower
	xUpper

Function Documentation

adjacentDiff()

def edmStreamStallGrapher.adjacentDiff

(

*

pairLists

)

Definition at line 465 of file edmStreamStallGrapher.py.

def adjacentDiff(*pairLists):
    points = []
    for pairList in pairLists:
        points += [Point(x[0], 1) for x in pairList if x[1] != 0]
        points += [Point(sum(x),-1) for x in pairList if x[1] != 0]
    points.sort(key=attrgetter('x'))
    return points
 

Referenced by createPDFImage().

chooseParser()

def edmStreamStallGrapher.chooseParser

(

inputFile

)

Definition at line 277 of file edmStreamStallGrapher.py.

def chooseParser(inputFile):
 
    firstLine = inputFile.readline().rstrip()
    for i in range(3):
        inputFile.readline()
    # Often the Tracer log file starts with 4 lines not from the Tracer
    fifthLine = inputFile.readline().rstrip()
    inputFile.seek(0) # Rewind back to beginning
    if (firstLine.find("# Transition") != -1) or (firstLine.find("# Step") != -1):
        print("> ... Parsing StallMonitor output.")
        return StallMonitorParser
 
    if firstLine.find("++") != -1 or fifthLine.find("++") != -1:
        global kTracerInput
        kTracerInput = True
        print("> ... Parsing Tracer output.")
        return TracerParser
    else:
        inputFile.close()
        print("Unknown input format.")
        exit(1)
 
#----------------------------------------------

References beamvalidation.exit(), print(), and FastTimerService_cff.range.

Referenced by readLogFile().

consolidateContiguousBlocks()

def edmStreamStallGrapher.consolidateContiguousBlocks	(		numStreams,
			streamInfo
	)

Definition at line 503 of file edmStreamStallGrapher.py.

def consolidateContiguousBlocks(numStreams, streamInfo):
    oldStreamInfo = streamInfo
    streamInfo = [[] for x in range(numStreams)]
 
    for s in range(numStreams):
        if oldStreamInfo[s]:
            lastStartTime,lastTimeLength,lastColor = oldStreamInfo[s][0].unpack()
            for info in oldStreamInfo[s][1:]:
                start,length,color = info.unpack()
                if color == lastColor and lastStartTime+lastTimeLength == start:
                    lastTimeLength += length
                else:
                    streamInfo[s].append(StreamInfoElement(lastStartTime,lastTimeLength,lastColor))
                    lastStartTime = start
                    lastTimeLength = length
                    lastColor = color
            streamInfo[s].append(StreamInfoElement(lastStartTime,lastTimeLength,lastColor))
 
    return streamInfo
 
#----------------------------------------------
# Consolidating contiguous blocks with the same color drastically
# reduces the size of the pdf file.  Same functionality as the
# previous function, but with slightly different implementation.

References mps_setup.append, FastTimerService_cff.range, and BeamSpotPI.unpack().

Referenced by createPDFImage().

createAsciiImage()

def edmStreamStallGrapher.createAsciiImage	(		processingSteps,
			numStreams,
			maxNameSize
	)

Definition at line 371 of file edmStreamStallGrapher.py.

def createAsciiImage(processingSteps, numStreams, maxNameSize):
    streamTime = [0]*numStreams
    streamState = [0]*numStreams
    modulesActiveOnStreams = [{} for x in range(numStreams)]
    for n,trans,s,time,isEvent in processingSteps:
        waitTime = None
        modulesActiveOnStream = modulesActiveOnStreams[s]
        if trans == kPrefetchEnd:
            modulesActiveOnStream[n] = time
            continue
        elif trans == kStartedAcquire or trans == kStarted:
            if n in modulesActiveOnStream:
                waitTime = time - modulesActiveOnStream[n]
                modulesActiveOnStream.pop(n, None)
            streamState[s] +=1
        elif trans == kFinishedAcquire or trans == kFinished:
            streamState[s] -=1
            streamTime[s] = time
        elif trans == kStartedSourceDelayedRead:
            if streamState[s] == 0:
                waitTime = time - streamTime[s]
        elif trans == kStartedSource:
            modulesActiveOnStream.clear()
        elif trans == kFinishedSource or trans == kFinishedSourceDelayedRead:
            streamTime[s] = time
        states = "%-*s: " % (maxNameSize,n)
        if trans == kStartedAcquire or trans == kStarted or trans == kStartedSourceDelayedRead or trans == kStartedSource:
            states +="+ "
        else:
            states +="- "
        for index, state in enumerate(streamState):
            if n==kSourceFindEvent and index == s:
                states +="* "
            else:
                states +=str(state)+" "
        states += " -- " + str(time/1000.) + " " + str(s) + " "
        if waitTime is not None:
            states += " %.2f"% (waitTime/1000.)
            if waitTime > kStallThreshold:
                states += " STALLED"
 
        print(states)
 
#----------------------------------------------

References print(), FastTimerService_cff.range, and str.

createModuleTiming()

def edmStreamStallGrapher.createModuleTiming	(		processingSteps,
			numStreams
	)

Definition at line 348 of file edmStreamStallGrapher.py.

def createModuleTiming(processingSteps, numStreams):
    import json 
    streamTime = [0]*numStreams
    streamState = [0]*numStreams
    moduleTimings = defaultdict(list)
    modulesActiveOnStream = [defaultdict(int) for x in range(numStreams)]
    for n,trans,s,time,isEvent in processingSteps:
        waitTime = None
        modulesOnStream = modulesActiveOnStream[s]
        if isEvent:
            if trans == kStarted:
                streamState[s] = 1
                modulesOnStream[n]=time
            elif trans == kFinished:
                waitTime = time - modulesOnStream[n]
                modulesOnStream.pop(n, None)
                streamState[s] = 0
                moduleTimings[n].append(float(waitTime/1000.))
 
    with open('module-timings.json', 'w') as outfile:
        outfile.write(json.dumps(moduleTimings, indent=4))
 
#----------------------------------------------

References mps_setup.append, dqmMemoryStats.float, and FastTimerService_cff.range.

createPDFImage()

def edmStreamStallGrapher.createPDFImage	(		pdfFile,
			shownStacks,
			processingSteps,
			numStreams,
			stalledModuleInfo,
			displayExternalWork,
			checkOrder,
			setXAxis,
			xLower,
			xUpper
	)

Definition at line 577 of file edmStreamStallGrapher.py.

def createPDFImage(pdfFile, shownStacks, processingSteps, numStreams, stalledModuleInfo, displayExternalWork, checkOrder, setXAxis, xLower, xUpper):
 
    stalledModuleNames = set([x for x in iter(stalledModuleInfo)])
    streamLowestRow = [[] for x in range(numStreams)]
    modulesActiveOnStreams = [set() for x in range(numStreams)]
    acquireActiveOnStreams = [set() for x in range(numStreams)]
    externalWorkOnStreams  = [set() for x in range(numStreams)]
    previousFinishTime = [None for x in range(numStreams)]
    streamRunningTimes = [[] for x in range(numStreams)]
    streamExternalWorkRunningTimes = [[] for x in range(numStreams)]
    maxNumberOfConcurrentModulesOnAStream = 1
    externalWorkModulesInJob = False
    previousTime = [0 for x in range(numStreams)]
 
    # The next five variables are only used to check for out of order transitions
    finishBeforeStart = [set() for x in range(numStreams)]
    finishAcquireBeforeStart = [set() for x in range(numStreams)]
    countSource = [0 for x in range(numStreams)]
    countDelayedSource = [0 for x in range(numStreams)]
    countExternalWork = [defaultdict(int) for x in range(numStreams)]
 
    timeOffset = None
    for n,trans,s,time,isEvent in processingSteps:
        if timeOffset is None:
            timeOffset = time
        startTime = None
        time -=timeOffset
        # force the time to monotonically increase on each stream
        if time < previousTime[s]:
            time = previousTime[s]
        previousTime[s] = time
 
        activeModules = modulesActiveOnStreams[s]
        acquireModules = acquireActiveOnStreams[s]
        externalWorkModules = externalWorkOnStreams[s]
 
        if trans == kStarted or trans == kStartedSourceDelayedRead or trans == kStartedAcquire or trans == kStartedSource :
            if checkOrder:
                # Note that the code which checks the order of transitions assumes that
                # all the transitions exist in the input. It is checking only for order
                # problems, usually a start before a finish. Problems are fixed and
                # silently ignored. Nothing gets plotted for transitions that are
                # in the wrong order.
                if trans == kStarted:
                    countExternalWork[s][n] -= 1
                    if n in finishBeforeStart[s]:
                        finishBeforeStart[s].remove(n)
                        continue
                elif trans == kStartedAcquire:
                    if n in finishAcquireBeforeStart[s]:
                        finishAcquireBeforeStart[s].remove(n)
                        continue
 
            if trans == kStartedSourceDelayedRead:
                countDelayedSource[s] += 1
                if countDelayedSource[s] < 1:
                    continue
            elif trans == kStartedSource:
                countSource[s] += 1
                if countSource[s] < 1:
                    continue
 
            moduleNames = activeModules.copy()
            moduleNames.update(acquireModules)
            if trans == kStartedAcquire:
                 acquireModules.add(n)
            else:
                 activeModules.add(n)
            streamRunningTimes[s].append(Point(time,1))
            if moduleNames or externalWorkModules:
                startTime = previousFinishTime[s]
            previousFinishTime[s] = time
 
            if trans == kStarted and n in externalWorkModules:
                externalWorkModules.remove(n)
                streamExternalWorkRunningTimes[s].append(Point(time, -1))
            else:
                nTotalModules = len(activeModules) + len(acquireModules) + len(externalWorkModules)
                maxNumberOfConcurrentModulesOnAStream = max(maxNumberOfConcurrentModulesOnAStream, nTotalModules)
        elif trans == kFinished or trans == kFinishedSourceDelayedRead or trans == kFinishedAcquire or trans == kFinishedSource :
            if checkOrder:
                if trans == kFinished:
                    if n not in activeModules:
                        finishBeforeStart[s].add(n)
                        continue
 
            if trans == kFinishedSourceDelayedRead:
                countDelayedSource[s] -= 1
                if countDelayedSource[s] < 0:
                    continue
            elif trans == kFinishedSource:
                countSource[s] -= 1
                if countSource[s] < 0:
                    continue
 
            if trans == kFinishedAcquire:
                if checkOrder:
                    countExternalWork[s][n] += 1
                if displayExternalWork:
                    externalWorkModulesInJob = True
                    if (not checkOrder) or countExternalWork[s][n] > 0:
                        externalWorkModules.add(n)
                        streamExternalWorkRunningTimes[s].append(Point(time,+1))
                if checkOrder and n not in acquireModules:
                    finishAcquireBeforeStart[s].add(n)
                    continue
            streamRunningTimes[s].append(Point(time,-1))
            startTime = previousFinishTime[s]
            previousFinishTime[s] = time
            moduleNames = activeModules.copy()
            moduleNames.update(acquireModules)
 
            if trans == kFinishedAcquire:
                acquireModules.remove(n)
            elif trans == kFinishedSourceDelayedRead:
                if countDelayedSource[s] == 0:
                    activeModules.remove(n)
            elif trans == kFinishedSource:
                if countSource[s] == 0:
                    activeModules.remove(n)
            else:
                activeModules.remove(n)
 
        if startTime is not None:
            c="green"
            if not isEvent:
              c="limegreen"
            if not moduleNames:
                c = "darkviolet"
            elif (kSourceDelayedRead in moduleNames) or (kSourceFindEvent in moduleNames):
                c = "orange"
            else:
                for n in moduleNames:
                    if n in stalledModuleNames:
                        c="red"
                        break
            streamLowestRow[s].append(StreamInfoElement(startTime, time-startTime, c))
    streamLowestRow = consolidateContiguousBlocks(numStreams, streamLowestRow)
 
    nr = 1
    if shownStacks:
        nr += 1
    fig, ax = plt.subplots(nrows=nr, squeeze=True)
    axStack = None
    if shownStacks:
        [xH,yH] = fig.get_size_inches()
        fig.set_size_inches(xH,yH*4/3)
        ax = plt.subplot2grid((4,1),(0,0), rowspan=3)
        axStack = plt.subplot2grid((4,1),(3,0))
 
    ax.set_xlabel("Time (sec)")
    ax.set_ylabel("Stream ID")
    ax.set_ylim(-0.5,numStreams-0.5)
    ax.yaxis.set_ticks(range(numStreams))
    if (setXAxis):
        ax.set_xlim((xLower, xUpper))
 
    height = 0.8/maxNumberOfConcurrentModulesOnAStream
    allStackTimes={'green': [],'limegreen':[], 'red': [], 'blue': [], 'orange': [], 'darkviolet': []}
    for iStream,lowestRow in enumerate(streamLowestRow):
        times=[(x.begin/1000000., x.delta/1000000.) for x in lowestRow] # Scale from microsec to sec.
        colors=[x.color for x in lowestRow]
        # for each stream, plot the lowest row
        ax.broken_barh(times,(iStream-0.4,height),facecolors=colors,edgecolors=colors,linewidth=0)
        # record them also for inclusion in the stack plot
        # the darkviolet ones get counted later so do not count them here
        for info in lowestRow:
            if not info.color == 'darkviolet':
                allStackTimes[info.color].append((info.begin, info.delta))
 
    # Now superimpose the number of concurrently running modules on to the graph.
    if maxNumberOfConcurrentModulesOnAStream > 1 or externalWorkModulesInJob:
 
        for i,perStreamRunningTimes in enumerate(streamRunningTimes):
 
            perStreamTimesWithExtendedWork = list(perStreamRunningTimes)
            perStreamTimesWithExtendedWork.extend(streamExternalWorkRunningTimes[i])
 
            plotPerStreamAboveFirstAndPrepareStack(perStreamTimesWithExtendedWork,
                                                   allStackTimes, ax, i, height,
                                                   streamHeightCut=2,
                                                   doPlot=True,
                                                   addToStackTimes=False,
                                                   color='darkviolet',
                                                   threadOffset=1)
 
            plotPerStreamAboveFirstAndPrepareStack(perStreamRunningTimes,
                                                   allStackTimes, ax, i, height,
                                                   streamHeightCut=2,
                                                   doPlot=True,
                                                   addToStackTimes=True,
                                                   color='blue',
                                                   threadOffset=1)
 
            plotPerStreamAboveFirstAndPrepareStack(streamExternalWorkRunningTimes[i],
                                                   allStackTimes, ax, i, height,
                                                   streamHeightCut=1,
                                                   doPlot=False,
                                                   addToStackTimes=True,
                                                   color='darkviolet',
                                                   threadOffset=0)
 
    if shownStacks:
        print("> ... Generating stack")
        stack = Stack()
        for color in ['green','limegreen','blue','red','orange','darkviolet']:
            tmp = allStackTimes[color]
            tmp = reduceSortedPoints(adjacentDiff(tmp))
            stack.update(color, tmp)
 
        for stk in reversed(stack.data):
            color = stk[0]
 
            # Now arrange list in a manner that it can be grouped by the height of the block
            height = 0
            xs = []
            for p1,p2 in zip(stk[1], stk[1][1:]):
                height += p1.y
                xs.append((p1.x, p2.x-p1.x, height))
            xs.sort(key = itemgetter(2))
            xs = mergeContiguousBlocks(xs)
 
            for height, xpairs in groupby(xs, itemgetter(2)):
                finalxs = [(e[0]/1000000.,e[1]/1000000.) for e in xpairs]
                # plot the stacked plot, one color and one height on each call to broken_barh
                axStack.broken_barh(finalxs, (0, height), facecolors=color, edgecolors=color, linewidth=0)
 
        axStack.set_xlabel("Time (sec)");
        axStack.set_ylabel("# modules");
        axStack.set_xlim(ax.get_xlim())
        axStack.tick_params(top='off')
 
    fig.text(0.1, 0.95, "modules running event", color = "green", horizontalalignment = 'left')
    fig.text(0.1, 0.92, "modules running other", color = "limegreen", horizontalalignment = 'left')
    fig.text(0.5, 0.95, "stalled module running", color = "red", horizontalalignment = 'center')
    fig.text(0.9, 0.95, "read from input", color = "orange", horizontalalignment = 'right')
    fig.text(0.5, 0.92, "multiple modules running", color = "blue", horizontalalignment = 'center')
    if displayExternalWork:
        fig.text(0.9, 0.92, "external work", color = "darkviolet", horizontalalignment = 'right')
    print("> ... Saving to file: '{}'".format(pdfFile))
    plt.savefig(pdfFile)
 
#=======================================

References PVValHelper.add(), adjacentDiff(), mps_setup.append, consolidateContiguousBlocks(), SiStripPI.max, mergeContiguousBlocks(), plotPerStreamAboveFirstAndPrepareStack(), print(), FastTimerService_cff.range, reduceSortedPoints(), MatrixUtil.remove(), and ComparisonHelper.zip().

findStalledModules()

def edmStreamStallGrapher.findStalledModules	(		processingSteps,
			numStreams
	)

Definition at line 315 of file edmStreamStallGrapher.py.

def findStalledModules(processingSteps, numStreams):
    streamTime = [0]*numStreams
    streamState = [0]*numStreams
    stalledModules = {}
    modulesActiveOnStream = [{} for x in range(numStreams)]
    for n,trans,s,time,isEvent in processingSteps:
 
        waitTime = None
        modulesOnStream = modulesActiveOnStream[s]
        if trans == kPrefetchEnd:
            modulesOnStream[n] = time
        elif trans == kStarted or trans == kStartedAcquire:
            if n in modulesOnStream:
                waitTime = time - modulesOnStream[n]
                modulesOnStream.pop(n, None)
            streamState[s] +=1
        elif trans == kFinished or trans == kFinishedAcquire:
            streamState[s] -=1
            streamTime[s] = time
        elif trans == kStartedSourceDelayedRead:
            if streamState[s] == 0:
                waitTime = time - streamTime[s]
        elif trans == kStartedSource:
            modulesOnStream.clear()
        elif trans == kFinishedSource or trans == kFinishedSourceDelayedRead:
            streamTime[s] = time
        if waitTime is not None:
            if waitTime > kStallThreshold:
                t = stalledModules.setdefault(n,[])
                t.append(waitTime)
    return stalledModules
 
 

References FastTimerService_cff.range.

getTime()

def edmStreamStallGrapher.getTime

(

line

)

Definition at line 178 of file edmStreamStallGrapher.py.

def getTime(line):
    time = line.split(" ")[1]
    time = time.split(":")
    time = int(time[0])*60*60+int(time[1])*60+float(time[2])
    time = int(1000000*time) # convert to microseconds
    return time
 
#----------------------------------------------
# The next function parses the Tracer output.
# Here are some differences to consider if you use Tracer output
# instead of the StallMonitor output.
# - The time in the text of the Tracer output is not as precise
# as the StallMonitor (.01 s vs .001 s)
# - The MessageLogger bases the time on when the message printed
# and not when it was initially queued up to print which smears
# the accuracy of the times.
# - Both of the previous things can produce some strange effects
# in the output plots.
# - The file size of the Tracer text file is much larger.
# - The CPU work needed to parse the Tracer files is larger.
# - The Tracer log file is expected to have "++" in the first
# or fifth line. If there are extraneous lines at the beginning
# you have to remove them.
# - The ascii printout out will have one extraneous line
# near the end for the SourceFindEvent start.
# - The only advantage I can see is that you have only
# one output file to handle instead of two, the regular
# log file and the StallMonitor output.
# We might should just delete the Tracer option because it is
# clearly inferior ...

References dqmMemoryStats.float, and createfilelist.int.

Referenced by EcalLaserAnalyzer2.endJob(), EcalLaserAnalyzer.endJob(), parseTracerOutput(), and pos::PixelFEDTestDAC.writeXMLHeader().

mergeContiguousBlocks()

def edmStreamStallGrapher.mergeContiguousBlocks

(

blocks

)

Definition at line 527 of file edmStreamStallGrapher.py.

def mergeContiguousBlocks(blocks):
    oldBlocks = blocks
 
    blocks = []
    if not oldBlocks:
        return blocks
 
    lastStartTime,lastTimeLength,lastHeight = oldBlocks[0]
    for start,length,height in oldBlocks[1:]:
        if height == lastHeight and lastStartTime+lastTimeLength == start:
            lastTimeLength += length
        else:
            blocks.append((lastStartTime,lastTimeLength,lastHeight))
            lastStartTime = start
            lastTimeLength = length
            lastHeight = height
    blocks.append((lastStartTime,lastTimeLength,lastHeight))
 
    return blocks
 
#----------------------------------------------

Referenced by createPDFImage(), and plotPerStreamAboveFirstAndPrepareStack().

parseTracerOutput()

def edmStreamStallGrapher.parseTracerOutput

(

f

)

Definition at line 208 of file edmStreamStallGrapher.py.

def parseTracerOutput(f):
    processingSteps = []
    numStreams = 0
    maxNameSize = 0
    startTime = 0
    streamsThatSawFirstEvent = set()
    for l in f:
        trans = None
        # We estimate the start and stop of the source
        # by the end of the previous event and start of
        # the event. This is historical, probably because
        # the Tracer output for the begin and end of the
        # source event does not include the stream number.
        if l.find("processing event :") != -1:
            name = kSourceFindEvent
            trans = kStartedSource
            # the end of the source is estimated using the start of the event
            if l.find("starting:") != -1:
                trans = kFinishedSource
        elif l.find("processing event for module") != -1:
            trans = kStarted
            if l.find("finished:") != -1:
                if l.find("prefetching") != -1:
                    trans = kPrefetchEnd
                else:
                    trans = kFinished
            else:
                if l.find("prefetching") != -1:
                    #skip this since we don't care about prefetch starts
                    continue
            name = l.split("'")[1]
        elif l.find("processing event acquire for module:") != -1:
            trans = kStartedAcquire
            if l.find("finished:") != -1:
                trans = kFinishedAcquire
            name = l.split("'")[1]
        elif l.find("event delayed read from source") != -1:
            trans = kStartedSourceDelayedRead
            if l.find("finished:") != -1:
                trans = kFinishedSourceDelayedRead
            name = kSourceDelayedRead
        if trans is not None:
            time = getTime(l)
            if startTime == 0:
                startTime = time
            time = time - startTime
            streamIndex = l.find("stream = ")
            stream = int(l[streamIndex+9:l.find(" ",streamIndex+10)])
            maxNameSize = max(maxNameSize, len(name))
 
            if trans == kFinishedSource and not stream in streamsThatSawFirstEvent:
                # This is wrong but there is no way to estimate the time better
                # because there is no previous event for the first event.
                processingSteps.append((name,kStartedSource,stream,time,True))
                streamsThatSawFirstEvent.add(stream)
 
            processingSteps.append((name,trans,stream,time, True))
            numStreams = max(numStreams, stream+1)
 
    f.close()
    return (processingSteps,numStreams,maxNameSize)
 

References getTime(), createfilelist.int, and SiStripPI.max.

plotPerStreamAboveFirstAndPrepareStack()

def edmStreamStallGrapher.plotPerStreamAboveFirstAndPrepareStack	(		points,
			allStackTimes,
			ax,
			stream,
			height,
			streamHeightCut,
			doPlot,
			addToStackTimes,
			color,
			threadOffset
	)

Definition at line 548 of file edmStreamStallGrapher.py.

def plotPerStreamAboveFirstAndPrepareStack(points, allStackTimes, ax, stream, height, streamHeightCut, doPlot, addToStackTimes, color, threadOffset):
    points = sorted(points, key=attrgetter('x'))
    points = reduceSortedPoints(points)
    streamHeight = 0
    preparedTimes = []
    for t1,t2 in zip(points, points[1:]):
        streamHeight += t1.y
        # We make a cut here when plotting because the first row for
        # each stream was already plotted previously and we do not
        # need to plot it again. And also we want to count things
        # properly in allStackTimes. We want to avoid double counting
        # or missing running modules and this is complicated because
        # we counted the modules in the first row already.
        if streamHeight < streamHeightCut:
            continue
        preparedTimes.append((t1.x,t2.x-t1.x, streamHeight))
    preparedTimes.sort(key=itemgetter(2))
    preparedTimes = mergeContiguousBlocks(preparedTimes)
 
    for nthreads, ts in groupby(preparedTimes, itemgetter(2)):
        theTS = [(t[0],t[1]) for t in ts]
        if doPlot:
            theTimes = [(t[0]/1000000.,t[1]/1000000.) for t in theTS]
            yspan = (stream-0.4+height,height*(nthreads-1))
            ax.broken_barh(theTimes, yspan, facecolors=color, edgecolors=color, linewidth=0)
        if addToStackTimes:
            allStackTimes[color].extend(theTS*(nthreads-threadOffset))
 
#----------------------------------------------

References mergeContiguousBlocks(), reduceSortedPoints(), and ComparisonHelper.zip().

Referenced by createPDFImage().

printHelp()

def edmStreamStallGrapher.printHelp

(

)

Definition at line 9 of file edmStreamStallGrapher.py.

def printHelp():
    s = '''
To Use: Add the StallMonitor Service to the cmsRun job you want to check for
  stream stalls. Use something like this in the configuration:
 
  process.add_(cms.Service("StallMonitor", fileName = cms.untracked.string("stallMonitor.log")))
 
  After running the job, execute this script and pass the name of the
  StallMonitor log file to the script.
 
  By default, the script will then print an 'ASCII art' stall graph
  which consists of a line of text for each time a module or the
  source stops or starts. Each line contains the name of the module
  which either started or stopped running, and the number of modules
  running on each stream at that moment in time. After that will be
  the time and stream number. Then if a module just started, you
  will also see the amount of time the module spent between finishing
  its prefetching and starting.  The state of a module is represented
  by a symbol:
 
    plus  ("+") the stream has just finished waiting and is starting a module
    minus ("-") the stream just finished running a module
 
  If a module had to wait more than 0.1 seconds, the end of the line
  will have "STALLED". Startup actions, e.g. reading conditions,
  may affect results for the first few events.
 
  Using the command line arguments described above you can make the
  program create a PDF file with actual graphs instead of the 'ASCII art'
  output.
 
  Once the graph is completed, the program outputs the list of modules
  which had the greatest total stall times. The list is sorted by
  total stall time and written in descending order. In addition, the
  list of all stall times for the module is given.
 
  There is an inferior alternative (an old obsolete way).
  Instead of using the StallMonitor Service, you can use the
  Tracer Service.  Make sure to use the 'printTimestamps' option
  cms.Service("Tracer", printTimestamps = cms.untracked.bool(True))
  There are problems associated with this and it is not recommended.'''
    return s
 
kStallThreshold=100000 #in microseconds
kTracerInput=False
 
#Stream states
kStarted=0
kFinished=1
kPrefetchEnd=2
kStartedAcquire=3
kFinishedAcquire=4
kStartedSource=5
kFinishedSource=6
kStartedSourceDelayedRead=7
kFinishedSourceDelayedRead=8
 
#Special names

printStalledModulesInOrder()

def edmStreamStallGrapher.printStalledModulesInOrder

(

stalledModules

)

Definition at line 415 of file edmStreamStallGrapher.py.

def printStalledModulesInOrder(stalledModules):
    priorities = []
    maxNameSize = 0
    for name,t in stalledModules.items():
        maxNameSize = max(maxNameSize, len(name))
        t.sort(reverse=True)
        priorities.append((name,sum(t),t))
 
    priorities.sort(key=lambda a: a[1], reverse=True)
 
    nameColumn = "Stalled Module"
    maxNameSize = max(maxNameSize, len(nameColumn))
 
    stallColumn = "Tot Stall Time"
    stallColumnLength = len(stallColumn)
 
    print("%-*s" % (maxNameSize, nameColumn), "%-*s"%(stallColumnLength,stallColumn), " Stall Times")
    for n,s,t in priorities:
        paddedName = "%-*s:" % (maxNameSize,n)
        print(paddedName, "%-*.2f"%(stallColumnLength,s/1000.), ", ".join([ "%.2f"%(x/1000.) for x in t]))
 
#--------------------------------------------------------

References join(), SiStripPI.max, and print().

processingStepsFromStallMonitorOutput()

def edmStreamStallGrapher.processingStepsFromStallMonitorOutput	(		f,
			moduleNames
	)

Definition at line 71 of file edmStreamStallGrapher.py.

def processingStepsFromStallMonitorOutput(f,moduleNames):
    for rawl in f:
        l = rawl.strip()
        if not l or l[0] == '#':
            continue
        (step,payload) = tuple(l.split(None,1))
        payload=payload.split()
 
        # Ignore these
        if step == 'E' or step == 'e':
            continue
 
        # Payload format is:
        #  <stream id> <..other fields..> <time since begin job>
        stream = int(payload[0])
        time = int(payload[-1])
        trans = None
        isEvent = True
 
        name = None
        # 'S' = begin of event creation in source
        # 's' = end of event creation in source
        if step == 'S' or step == 's':
            name = kSourceFindEvent
            trans = kStartedSource
            # The start of an event is the end of the framework part
            if step == 's':
                trans = kFinishedSource
        else:
            # moduleID is the second payload argument for all steps below
            moduleID = payload[1]
 
            # 'p' = end of module prefetching
            # 'M' = begin of module processing
            # 'm' = end of module processing
            if step == 'p' or step == 'M' or step == 'm':
                trans = kStarted
                if step == 'p':
                    trans = kPrefetchEnd
                elif step == 'm':
                    trans = kFinished
                if step == 'm' or step == 'M':
                    isEvent = (int(payload[2]) == 0)
                name = moduleNames[moduleID]
 
            # 'A' = begin of module acquire function
            # 'a' = end of module acquire function
            elif step == 'A' or step == 'a':
                trans = kStartedAcquire
                if step == 'a':
                    trans = kFinishedAcquire
                name = moduleNames[moduleID]
 
            # Delayed read from source
            # 'R' = begin of delayed read from source
            # 'r' = end of delayed read from source
            elif step == 'R' or step == 'r':
                trans = kStartedSourceDelayedRead
                if step == 'r':
                    trans = kFinishedSourceDelayedRead
                name = kSourceDelayedRead
 
        if trans is not None:
            yield (name,trans,stream,time, isEvent)
    
    return
 

References createfilelist.int.

Referenced by edmStreamStallGrapher.StallMonitorParser.processingSteps().

readLogFile()

def edmStreamStallGrapher.readLogFile

(

inputFile

)

Definition at line 300 of file edmStreamStallGrapher.py.

def readLogFile(inputFile):
    parseInput = chooseParser(inputFile)
    return parseInput(inputFile)
 
#----------------------------------------------
#
# modules: The time between prefetch finished and 'start processing' is
#   the time it took to acquire any resources which is by definition the
#   stall time.
#
# source: The source just records how long it spent doing work,
#   not how long it was stalled. We can get a lower bound on the stall
#   time for delayed reads by measuring the time the stream was doing
#   no work up till the start of the source delayed read.
#

References chooseParser().

reduceSortedPoints()

def edmStreamStallGrapher.reduceSortedPoints

(

ps

)

Definition at line 449 of file edmStreamStallGrapher.py.

def reduceSortedPoints(ps):
    if len(ps) < 2:
        return ps
    reducedPoints = []
    tmp = Point(ps[0].x, ps[0].y)
    for p in ps[1:]:
        if tmp.x == p.x:
            tmp.y += p.y
        else:
            reducedPoints.append(tmp)
            tmp = Point(p.x, p.y)
    reducedPoints.append(tmp)
    reducedPoints = [p for p in reducedPoints if p.y != 0]
    return reducedPoints
 
# -------------------------------------------

Referenced by createPDFImage(), plotPerStreamAboveFirstAndPrepareStack(), and edmStreamStallGrapher.Stack.update().

Variable Documentation

action

edmStreamStallGrapher.action

Definition at line 841 of file edmStreamStallGrapher.py.

args

edmStreamStallGrapher.args

Definition at line 860 of file edmStreamStallGrapher.py.

checkOrder

edmStreamStallGrapher.checkOrder

Definition at line 867 of file edmStreamStallGrapher.py.

const

edmStreamStallGrapher.const

Definition at line 835 of file edmStreamStallGrapher.py.

default

edmStreamStallGrapher.default

Definition at line 855 of file edmStreamStallGrapher.py.

description

edmStreamStallGrapher.description

Definition at line 826 of file edmStreamStallGrapher.py.

dest

edmStreamStallGrapher.dest

Definition at line 836 of file edmStreamStallGrapher.py.

displayExternalWork

edmStreamStallGrapher.displayExternalWork

Definition at line 866 of file edmStreamStallGrapher.py.

doGraphic

edmStreamStallGrapher.doGraphic

Definition at line 879 of file edmStreamStallGrapher.py.

doModuleTimings

edmStreamStallGrapher.doModuleTimings

Definition at line 868 of file edmStreamStallGrapher.py.

epilog

edmStreamStallGrapher.epilog

Definition at line 828 of file edmStreamStallGrapher.py.

extension

edmStreamStallGrapher.extension

Definition at line 892 of file edmStreamStallGrapher.py.

formatter_class

edmStreamStallGrapher.formatter_class

Definition at line 827 of file edmStreamStallGrapher.py.

help

edmStreamStallGrapher.help

Definition at line 831 of file edmStreamStallGrapher.py.

inputFile

edmStreamStallGrapher.inputFile

Definition at line 863 of file edmStreamStallGrapher.py.

kSourceDelayedRead

edmStreamStallGrapher.kSourceDelayedRead

Definition at line 68 of file edmStreamStallGrapher.py.

kSourceFindEvent

edmStreamStallGrapher.kSourceFindEvent

Definition at line 67 of file edmStreamStallGrapher.py.

metavar

edmStreamStallGrapher.metavar

Definition at line 834 of file edmStreamStallGrapher.py.

nargs

edmStreamStallGrapher.nargs

Definition at line 833 of file edmStreamStallGrapher.py.

parser

edmStreamStallGrapher.parser

Definition at line 826 of file edmStreamStallGrapher.py.

pdfFile

edmStreamStallGrapher.pdfFile

Definition at line 864 of file edmStreamStallGrapher.py.

reader

edmStreamStallGrapher.reader

Definition at line 906 of file edmStreamStallGrapher.py.

setXAxis

edmStreamStallGrapher.setXAxis

Definition at line 872 of file edmStreamStallGrapher.py.

shownStacks

edmStreamStallGrapher.shownStacks

Definition at line 865 of file edmStreamStallGrapher.py.

stackType

edmStreamStallGrapher.stackType

Definition at line 473 of file edmStreamStallGrapher.py.

stalledModules

edmStreamStallGrapher.stalledModules

Definition at line 910 of file edmStreamStallGrapher.py.

supported_filetypes

edmStreamStallGrapher.supported_filetypes

Definition at line 893 of file edmStreamStallGrapher.py.

type

edmStreamStallGrapher.type

Definition at line 830 of file edmStreamStallGrapher.py.

xLower

edmStreamStallGrapher.xLower

Definition at line 877 of file edmStreamStallGrapher.py.

xUpper

edmStreamStallGrapher.xUpper

Definition at line 873 of file edmStreamStallGrapher.py.

Referenced by RPixChargeShare.RPixChargeShare().