alignmentValidation Namespace Reference

Functions
def	createCanvasesList (fname="canvases_list.js")
def	createCanvasToIDList (fname="canvas2id_list.js")
def	createDirectoryStructure (iteration_name)
def	dirToID (d)
def	doCurvaturePlotsDT (dt_basedir, tfiles_plotting)
def	doFitFunctionsPlotsCSC (csc_basedir, iter_tfile, iter_reports)
def	doFitFunctionsPlotsDT (dt_basedir, iter_tfile, iter_reports)
def	doIterationPlots (iteration_directory, tfiles_plotting, iter_tfile, iter_reports)
def	doMapPlotsCSC (csc_basedir, tfiles_plotting)
def	doMapPlotsDT (dt_basedir, tfiles_plotting)
def	doSegDiffPlotsCSC (csc_basedir, tfiles_plotting, iter_reports)
def	doSegDiffPlotsDT (dt_basedir, tfiles_plotting, iter_reports)
def	idsForFile (dir_name, file_name)
def	isFileUnderDir (dir_name, file_name)
	functions definitions More...
def	saveAs (nm)

Variables
	action
string	allOptions = "-l "
	args
	binsdxdz
	binsdydz
	binsx
	binsy
	c1 = ROOT.TCanvas("c1","c1",800,600)
	do drawing More...
list	CANVASES_LIST_TEMPLATE
string	comdir = "common/"
	setup output: More...
	default
	dest
bool	DO_CSC = False
bool	DO_CURVATURE = False
	DO_DIAGNOSTIC = options.diagnostic
bool	DO_DT = False
bool	DO_FIT = False
bool	DO_MAP = False
bool	DO_MEDIAN = False
bool	DO_SEGDIFF = False
string	fname = options.inputDir+'/'
	main script More...
	help
	i1prefix = options.i1prefix
	iNprefix = options.iNprefix
list	iter1_reports = []
	iter1_tfile = None
string	iteration1 = "iter1"
string	iterationN = "iterN"
list	iterN_reports = []
	iterN_tfile = None
	options
	outdir = options.outputDir
	parser = optparse.OptionParser(usage)
	pic_ids = createCanvasToIDList("canvas2id_list.js")
int	QUICKTESTN = 10000
bool	SINGLE_ITERATION = False
list	tfiles1_plotting = []
list	tfilesN_plotting = []
	type
string	usage = '%prog [options]\n'
	To parse commandline args. More...
	windowdxdz
	windowdydz
	windowx
	windowy

Function Documentation

def alignmentValidation.createCanvasesList

(

fname = "canvases_list.js"

)

Use CANVASES_LIST_TEMPLATE as a template to create a canvases list include for the browser.
   Write out only those canvases which have existing filename.png plots.

Definition at line 861 of file alignmentValidation.py.

References isFileUnderDir(), and edm.print().

def createCanvasesList(fname="canvases_list.js"):
    '''Use CANVASES_LIST_TEMPLATE as a template to create a canvases list include for the browser.
       Write out only those canvases which have existing filename.png plots.
    '''
    CANVASES_LIST = []
    for scope in CANVASES_LIST_TEMPLATE:
        scope_entry = []
        if len(scope)>2:
            scope_entry = [scope[0],scope[1]]
            for canvas_entry in scope[2:]:
                if isFileUnderDir("./",canvas_entry[1]):
                    scope_entry.append(canvas_entry)
        CANVASES_LIST.append(scope_entry)

    ff = open(fname,mode="w")
    print("var CANVASES_LIST = ", file=ff)
    json.dump(CANVASES_LIST,ff)
    ff.close()

def alignmentValidation.createCanvasToIDList

(

fname = "canvas2id_list.js"

)

Writes out a canvas-2-ids list include for the browser.
   Write out only those canvases which have existing filename.png plots.
   Returns: list of unique IDs that have existing filename.png plots.

Definition at line 881 of file alignmentValidation.py.

References cmsPerfStripChart.dict, idsForFile(), list(), and edm.print().

def createCanvasToIDList(fname="canvas2id_list.js"):
    '''Writes out a canvas-2-ids list include for the browser.
       Write out only those canvases which have existing filename.png plots.
       Returns: list of unique IDs that have existing filename.png plots.
    '''
    CANVAS2ID_LIST = []
    ID_LIST = []
    for scope in CANVASES_LIST_TEMPLATE:
        if len(scope)>2:
            for canvas_entry in scope[2:]:
                ids = idsForFile("./",canvas_entry[1])
                #  scope_entry.append(canvas_entry)
                # uniquify:
                set_ids = set(ids)
                uids = list(set_ids)
                ID_LIST.extend(uids)
                print(canvas_entry, ":", len(uids), "ids")
                if (len(uids)>0):
                    CANVAS2ID_LIST.append( (canvas_entry[1],uids) )
    #print CANVAS2ID_LIST
    CANVAS2ID_LIST_DICT = dict(CANVAS2ID_LIST)
    #print CANVAS2ID_LIST_DICT
    ff = open(fname,mode="w")
    print("var CANVAS2ID_LIST = ", file=ff)
    json.dump(CANVAS2ID_LIST_DICT,ff)
    ff.close()
    set_ids = set(ID_LIST)
    return list(set_ids)

def alignmentValidation.createDirectoryStructure

(

iteration_name

)

Definition at line 308 of file alignmentValidation.py.

References edm.print().

def createDirectoryStructure(iteration_name):

    if not os.access(iteration_name,os.F_OK):
        os.mkdir(iteration_name)

    csc_basedir = iteration_name+'/'
    for endcap in CSC_TYPES:
        #print csc_basedir+endcap[0]
        shutil.rmtree(csc_basedir+endcap[0],True)
        os.mkdir(csc_basedir+endcap[0])
        for station in endcap[2]:
            #print csc_basedir+endcap[0]+'/'+station[1]
            os.mkdir(csc_basedir+endcap[0]+'/'+station[1])
            for ring in station[2]:
                #print csc_basedir+endcap[0]+'/'+station[1]+'/'+ring[1]
                os.mkdir(csc_basedir+endcap[0]+'/'+station[1]+'/'+ring[1])
                for chamber in range(1,ring[2]+1):
                    schamber = "%02d" % chamber
                    #print csc_basedir+endcap[0]+'/'+station[1]+'/'+ring[1]+'/'+schamber
                    os.mkdir(csc_basedir+endcap[0]+'/'+station[1]+'/'+ring[1]+'/'+schamber)

    dt_basedir = iteration_name+'/MB/'
    #print dt_basedir
    shutil.rmtree(dt_basedir,True)
    os.mkdir(dt_basedir)
    for wheel in DT_TYPES:
        #print dt_basedir+wheel[0]
        os.mkdir(dt_basedir+wheel[0])
        for station in wheel[2]:
            #print dt_basedir+wheel[0]+'/'+station[1]
            os.mkdir(dt_basedir+wheel[0]+'/'+station[1])
            for sector in range(1,station[2]+1):
                ssector = "%02d" % sector
                #print dt_basedir+wheel[0]+'/'+station[1]+'/'+ssector
                os.mkdir(dt_basedir+wheel[0]+'/'+station[1]+'/'+ssector)

    print(os.getcwd())

def alignmentValidation.dirToID

(

d

)

Definition at line 929 of file alignmentValidation.py.

Referenced by idsForFile().

def dirToID(d):
    if d[-1]!='/': d += '/'
    dtn = d.find("/MB/")
    if dtn!=-1:
        return d[dtn+4:-1]
    cscn = d.find("/ME-/")
    if cscn!=-1:
        return 'ME-'+d[cscn+5:-1]
    cscn = d.find("/ME+/")
    if cscn!=-1:
        return 'ME+'+d[cscn+5:-1]
    return ''

def alignmentValidation.doCurvaturePlotsDT	(		dt_basedir,
			tfiles_plotting
	)

write DT curvature plots

"wheel%s_sector%s" % (wheel, sector)

wheel in "m2", "m1", "z", "p1", "p2"
station 1 only!
sector in "01", ..., "12"

"param" may be one of 
  "deltax" (Delta x position residuals),
  "deltadxdz" (Delta (dx/dz) angular residuals),
  "curverr" (Delta x * d(Delta q/pT)/d(Delta x) = Delta q/pT in the absence of misalignment) - not necessary

made for all (wheel,station=1,sector) combinations

Interface: could be accesses through a general DT chambers map for station=1 chambers.

Definition at line 540 of file alignmentValidation.py.

References plotscripts.curvatureplot(), edm.print(), and saveAs().

Referenced by doIterationPlots().

def doCurvaturePlotsDT(dt_basedir, tfiles_plotting):
    """write DT curvature plots

    "wheel%s_sector%s" % (wheel, sector)

    wheel in "m2", "m1", "z", "p1", "p2"
    station 1 only!
    sector in "01", ..., "12"

    "param" may be one of 
      "deltax" (Delta x position residuals),
      "deltadxdz" (Delta (dx/dz) angular residuals),
      "curverr" (Delta x * d(Delta q/pT)/d(Delta x) = Delta q/pT in the absence of misalignment) - not necessary

    made for all (wheel,station=1,sector) combinations

    Interface: could be accesses through a general DT chambers map for station=1 chambers."""

    w_dict = {'-2':'m2', '-1':'m1', '0':'z', '1':'p1', '2':'p2'}
    qcount = 0
    for wheel in DT_TYPES:
        if wheel[1]=="ALL": continue
        #station = 1
        #station = wheel[2][0]
        for station in wheel[2]:
            print("curv in ", wheel[0]+'/'+station[1])
            for sector in range(1,station[2]+1):
                #if sector>12: break
                if qcount>QUICKTESTN: break
                qcount += 1
                ssector = "%02d" % sector
                pdir = dt_basedir+'/'+wheel[0]+'/'+station[1]+'/'+ssector+'/'
                label = "wheel%s_st%s_sector%s" % (w_dict[wheel[1]], station[1], ssector)
                thetitle ="Wheel %s, station %s, sector %s" % (wheel[1], station[1], ssector)
                curvatureplot(tfiles_plotting, label, "deltax", title=thetitle, window=10., fitline=True)
                saveAs(pdir+'dt_curvature_deltax.png')
                curvatureplot(tfiles_plotting, label, "deltadxdz", title=thetitle, window=10., fitline=True)
                saveAs(pdir+'dt_curvature_deltadxdz.png')

def alignmentValidation.doFitFunctionsPlotsCSC	(		csc_basedir,
			iter_tfile,
			iter_reports
	)

write fit functions plots for CSC

   CSC bellcurves and polynomials

set of plots of bellcurves
  rphi, drphidz, rphi vs. drphidz

set of plots of polynomials
  rphi vs. rphi pos,    rphi vs drphidz angle
  drphidz vs. rphi pos, drphidz vs drphidz angle

made for all (endcap,station,ring,chamber) combinations

Interface: could be accesses through a general CSC chambers map.

Definition at line 797 of file alignmentValidation.py.

References plotscripts.bellcurves(), plotscripts.clearDDT(), plotscripts.polynomials(), edm.print(), and saveAs().

Referenced by doIterationPlots().

def doFitFunctionsPlotsCSC(csc_basedir, iter_tfile, iter_reports):
    """write fit functions plots for CSC

   CSC bellcurves and polynomials

    set of plots of bellcurves
      rphi, drphidz, rphi vs. drphidz

    set of plots of polynomials
      rphi vs. rphi pos,    rphi vs drphidz angle
      drphidz vs. rphi pos, drphidz vs drphidz angle

    made for all (endcap,station,ring,chamber) combinations

    Interface: could be accesses through a general CSC chambers map."""

    qcount = 0
    clearDDT()
    for endcap in CSC_TYPES:
        for station in endcap[2]:
            for ring in station[2]:
                if ring[1]=="ALL": continue
                print(endcap[0]+'/'+station[1]+'/'+ring[1])
                for chamber in range(1,ring[2]+1):
                    if qcount>QUICKTESTN: break
                    qcount += 1
                    schamber = "%02d" % chamber
                    pdir = csc_basedir+'/'+endcap[0]+'/'+station[1]+'/'+ring[1]+'/'+schamber+'/'
                    label = "ME%s%s%s_%s" % (endcap[1], station[1], ring[1], schamber)
                    bellcurves(iter_tfile, iter_reports, label, False)
                    #c1.SaveAs(pdir+'csc_bellcurves.png')
                    saveAs(pdir+'csc_bellcurves.png')
                    polynomials(iter_tfile, iter_reports, label, False)
                    #c1.SaveAs(pdir+'csc_polynomials.png')
                    saveAs(pdir+'csc_polynomials.png')
    #printDeltaTs()

def alignmentValidation.doFitFunctionsPlotsDT	(		dt_basedir,
			iter_tfile,
			iter_reports
	)

write fit functions plots for DT

   DT bellcurves and polynomials

set of plots of bellcurves
  x, dxdz, x vs. dxdz (for all 4 stations)
  y, dydz, x vs. dxdz (only for stations 1-3?)

set of plots of polynomials -- for stations 1-3 only??
  x vs. xpos,    x vs ypos,    x vs dxdz angle,    x vs dydz angle
  y vs. xpos,    y vs ypos,    y vs dxdz angle,    y vs dydz angle
  dxdz vs. xpos, dxdz vs ypos, dxdz vs dxdz angle, dxdz vs dydz angle
  dydz vs. xpos, dydz vs ypos, dydz vs dxdz angle, dydz vs dydz angle

set of plots of polynomials -- for station 4 only??
  x vs. xpos,    x vs dxdz angle
  dxdz vs. xpos, dxdz vs dxdz angle

made for all (wheel,station,sector) combinations

Interface: could be accesses through a general DT chambers map.

Definition at line 753 of file alignmentValidation.py.

References plotscripts.bellcurves(), plotscripts.clearDDT(), createfilelist.int, plotscripts.polynomials(), edm.print(), saveAs(), and plotscripts.wheelLetter().

Referenced by doIterationPlots().

def doFitFunctionsPlotsDT(dt_basedir, iter_tfile, iter_reports):
    """write fit functions plots for DT

   DT bellcurves and polynomials

    set of plots of bellcurves
      x, dxdz, x vs. dxdz (for all 4 stations)
      y, dydz, x vs. dxdz (only for stations 1-3?)

    set of plots of polynomials -- for stations 1-3 only??
      x vs. xpos,    x vs ypos,    x vs dxdz angle,    x vs dydz angle
      y vs. xpos,    y vs ypos,    y vs dxdz angle,    y vs dydz angle
      dxdz vs. xpos, dxdz vs ypos, dxdz vs dxdz angle, dxdz vs dydz angle
      dydz vs. xpos, dydz vs ypos, dydz vs dxdz angle, dydz vs dydz angle

    set of plots of polynomials -- for station 4 only??
      x vs. xpos,    x vs dxdz angle
      dxdz vs. xpos, dxdz vs dxdz angle

    made for all (wheel,station,sector) combinations

    Interface: could be accesses through a general DT chambers map."""

    qcount = 0
    clearDDT()
    for wheel in DT_TYPES:
        if wheel[1]=="ALL": continue
        for station in wheel[2]:
            print(wheel[0]+'/'+station[1])
            for sector in range(1,station[2]+1):
                if qcount>QUICKTESTN: break
                qcount += 1
                ssector = "%02d" % sector
                pdir = dt_basedir+'/'+wheel[0]+'/'+station[1]+'/'+ssector+'/'
                label = "MBwh%sst%ssec%s" % (wheelLetter(int(wheel[1])),station[1],ssector)
                bellcurves(iter_tfile, iter_reports, label, False)
                #c1.SaveAs(pdir+'dt_bellcurves.png')
                saveAs(pdir+'dt_bellcurves.png')
                polynomials(iter_tfile, iter_reports, label, False)
                #c1.SaveAs(pdir+'dt_polynomials.png')
                saveAs(pdir+'dt_polynomials.png')
    #printDeltaTs()

def alignmentValidation.doIterationPlots	(		iteration_directory,
			tfiles_plotting,
			iter_tfile,
			iter_reports
	)

Definition at line 836 of file alignmentValidation.py.

References doCurvaturePlotsDT(), doFitFunctionsPlotsCSC(), doFitFunctionsPlotsDT(), doMapPlotsCSC(), doMapPlotsDT(), doSegDiffPlotsCSC(), and doSegDiffPlotsDT().

def doIterationPlots(iteration_directory, tfiles_plotting, iter_tfile, iter_reports):
    dt_basedir = iteration_directory+'/'+'MB'
    csc_basedir = iteration_directory+'/'

    if DO_DT and DO_MAP:
        doMapPlotsDT(dt_basedir, tfiles_plotting)
    if DO_CSC and DO_MAP:
        doMapPlotsCSC(csc_basedir, tfiles_plotting)

    if DO_DT and DO_CURVATURE:
        doCurvaturePlotsDT(dt_basedir, tfiles_plotting)
    #if DO_CSC and DO_CURVATURE:
    #  doCurvaturePlotsCSC(csc_basedir, tfiles_plotting)

    if DO_DT and DO_SEGDIFF:
        doSegDiffPlotsDT(dt_basedir, tfiles_plotting, iter_reports)
    if DO_CSC and DO_SEGDIFF:
        doSegDiffPlotsCSC(csc_basedir, tfiles_plotting, iter_reports)

    if DO_DT and DO_FIT:
        doFitFunctionsPlotsDT(dt_basedir, iter_tfile, iter_reports)
    if DO_CSC and DO_FIT:
        doFitFunctionsPlotsCSC(csc_basedir, iter_tfile, iter_reports)

def alignmentValidation.doMapPlotsCSC	(		csc_basedir,
			tfiles_plotting
	)

write CSC map plots

   "CSCvsphi_me%s%d%d" % (endcap, station, ring)

plots "integrated" over ALL SECTORS:
of rphi, drphi/dz vs. phi
made for all (endcap,station,ring) combinations

Interface: may be arranged into two station(1 .. 4) vs. R(1 .. 4) maps for both endcaps
with R range (1 .. 4) for stations 2-4
   It could be incorporated into a general CSC chambers map (column1: endcap, column2: station,
column3: ring, columns4-40 correspond to chamber #) by making ring numbers in column 3
clickable.


   "CSCvsr_me%s%dch%02d" % (endcap, station, chamberNumber)

plots "integrated" over ALL RINGS:
of rphi, drphi/dz vs. z
made for all (endcap,station,chamber) combinations

Interface: may be arranged into two station(1 .. 4) vs. chamber(1 .. 36) maps for both endcaps
It could be incorporated into an EXTENDED general CSC chambers map (extended by adding an
identifier "ALL" in column3 for ring number).

   "CSCvsr_me%s%dchALL" % (endcap, station)

plots spanning over ALL RINGS along r and integrated over all SECTORS:
of rphi, drphi/dz vs. z
made for all (endcap,station) combinations

Interface: may be arranged into two station(1 .. 4) maps for both endcaps
It could be incorporated into an EXTENDED general CSC chambers map (extended by adding an
identifier "ALL" in column3 for ring number).

Definition at line 454 of file alignmentValidation.py.

References plotscripts.mapplot(), and plotscripts.saveTestResultsMap().

Referenced by doIterationPlots().

def doMapPlotsCSC(csc_basedir, tfiles_plotting):
    """write CSC map plots

   "CSCvsphi_me%s%d%d" % (endcap, station, ring)

    plots "integrated" over ALL SECTORS:
    of rphi, drphi/dz vs. phi
    made for all (endcap,station,ring) combinations

    Interface: may be arranged into two station(1 .. 4) vs. R(1 .. 4) maps for both endcaps
    with R range (1 .. 4) for stations 2-4
   It could be incorporated into a general CSC chambers map (column1: endcap, column2: station,
    column3: ring, columns4-40 correspond to chamber #) by making ring numbers in column 3
    clickable.


   "CSCvsr_me%s%dch%02d" % (endcap, station, chamberNumber)

    plots "integrated" over ALL RINGS:
    of rphi, drphi/dz vs. z
    made for all (endcap,station,chamber) combinations

    Interface: may be arranged into two station(1 .. 4) vs. chamber(1 .. 36) maps for both endcaps
    It could be incorporated into an EXTENDED general CSC chambers map (extended by adding an
    identifier "ALL" in column3 for ring number).

   "CSCvsr_me%s%dchALL" % (endcap, station)

    plots spanning over ALL RINGS along r and integrated over all SECTORS:
    of rphi, drphi/dz vs. z
    made for all (endcap,station) combinations

    Interface: may be arranged into two station(1 .. 4) maps for both endcaps
    It could be incorporated into an EXTENDED general CSC chambers map (extended by adding an
    identifier "ALL" in column3 for ring number)."""

    for endcap in CSC_TYPES:
        for station in endcap[2]:
            for ring in station[2]:
                if ring[1]=="ALL": continue
                pdir = csc_basedir+'/'+endcap[0]+'/'+station[1]+'/'+ring[1]+'/'
                label = "CSCvsphi_me%s%s%s" % (endcap[1], station[1], ring[1])
                htitle = "%s%s/%s" % (endcap[0], station[1],ring[1])
                mapplot(tfiles_plotting, label, "x", window=15., title=htitle, fitsine=True,fitpeaks=True, peaksbins=2)
                #mapplot(tfiles_plotting, label, "x", window=15., title=htitle, fitsine=True)
                c1.SaveAs(pdir+'map_CSCvsphi_x.png')
                mapplot(tfiles_plotting, label, "dxdz", window=15., title=htitle, peaksbins=2)
                c1.SaveAs(pdir+'map_CSCvsphi_dxdz.png')

    saveTestResultsMap(options.runLabel)

    qcount = 0
    for endcap in CSC_TYPES:
        for station in endcap[2]:
            for ring in station[2]:
                if ring[1]!="ALL": continue
                for chamber in range(1,ring[2]+1):
                    if qcount>QUICKTESTN: break
                    qcount += 1
                    schamber = "%02d" % chamber
                    pdir = csc_basedir+'/'+endcap[0]+'/'+station[1]+'/'+ring[1]+'/'+schamber+'/'
                    label = "CSCvsr_me%s%sch%s" % (endcap[1], station[1], schamber)
                    htitle = "%s%s/ALL/%d" % (endcap[0], station[1],chamber)
                    mapplot(tfiles_plotting, label, "x", window=15., title=htitle, peaksbins=2)
                    c1.SaveAs(pdir+'map_CSCvsr_x.png')
                    mapplot(tfiles_plotting, label, "dxdz", window=15., title=htitle, peaksbins=2)
                    c1.SaveAs(pdir+'map_CSCvsr_dxdz.png')

    qcount = 0
    for endcap in CSC_TYPES:
        for station in endcap[2]:
            for ring in station[2]:
                if ring[1]!="ALL": continue
                if qcount>QUICKTESTN: break
                qcount += 1
                schamber = "%02d" % chamber
                pdir = csc_basedir+'/'+endcap[0]+'/'+station[1]+'/'+ring[1]+'/'
                label = "CSCvsr_me%s%schALL" % (endcap[1], station[1])
                htitle = "%s%s" % (endcap[0], station[1])
                mapplot(tfiles_plotting, label, "x", window=10., title=htitle, peaksbins=2)
                c1.SaveAs(pdir+'map_CSCvsr_all_x.png')
                mapplot(tfiles_plotting, label, "dxdz", window=10., title=htitle, peaksbins=2)
                c1.SaveAs(pdir+'map_CSCvsr_all_dxdz.png')

def alignmentValidation.doMapPlotsDT	(		dt_basedir,
			tfiles_plotting
	)

write DT map plots

   "DTvsphi_st%dwh%s" % (station, wheelletter):

plots "integrated" over ALL SECTORS:
of x, y, dxdz, dydz vs. phi (y and dydz only for stations 1-3)
made for all (station,wheel) combinations

Access interface may be arranged into station(1 .. 4) vs. wheel(-2 .. +2) map.
It could be incorporated into a general DT chambers map (column1: wheel, column2: station,
columns3-16 correspond to sector #) by making station numbers in column 2 clickable.


   "DTvsz_st%dsec%02d" % (station, sector)

plots "integrated" over ALL WHEELS:
of x, y, dxdz, dydz vs. z (y and dydz only for stations 1-3)
made for all (station,sector) combinations

Interface: may be arranged into station(1 .. 4) vs. sector(1 .. 14) map with sector range
(1 .. 12) for stations 1-3.
It could be incorporated into an EXTENDED general DT chambers map (extended by adding an
identifier "ALL" in column1 for wheel number).


   "DTvsz_st%dsecALL" % (station)

plots spanning in z over ALL WHEELS and "integrated" over all sectors:
of x, y, dxdz, dydz vs. z (y and dydz only for stations 1-3)
made for all stations

Interface: may be arranged into station(1 .. 4) map 
It could be incorporated into an EXTENDED general DT chambers map (extended by adding an
identifier "ALL" in column1 for wheel number).

Definition at line 348 of file alignmentValidation.py.

References createfilelist.int, plotscripts.mapplot(), edm.print(), plotscripts.saveTestResultsMap(), and plotscripts.wheelLetter().

Referenced by doIterationPlots().

def doMapPlotsDT(dt_basedir, tfiles_plotting):
    """write DT map plots

   "DTvsphi_st%dwh%s" % (station, wheelletter):

    plots "integrated" over ALL SECTORS:
    of x, y, dxdz, dydz vs. phi (y and dydz only for stations 1-3)
    made for all (station,wheel) combinations

    Access interface may be arranged into station(1 .. 4) vs. wheel(-2 .. +2) map.
    It could be incorporated into a general DT chambers map (column1: wheel, column2: station,
    columns3-16 correspond to sector #) by making station numbers in column 2 clickable.


   "DTvsz_st%dsec%02d" % (station, sector)

    plots "integrated" over ALL WHEELS:
    of x, y, dxdz, dydz vs. z (y and dydz only for stations 1-3)
    made for all (station,sector) combinations

    Interface: may be arranged into station(1 .. 4) vs. sector(1 .. 14) map with sector range
    (1 .. 12) for stations 1-3.
    It could be incorporated into an EXTENDED general DT chambers map (extended by adding an
    identifier "ALL" in column1 for wheel number).


   "DTvsz_st%dsecALL" % (station)

    plots spanning in z over ALL WHEELS and "integrated" over all sectors:
    of x, y, dxdz, dydz vs. z (y and dydz only for stations 1-3)
    made for all stations

    Interface: may be arranged into station(1 .. 4) map 
    It could be incorporated into an EXTENDED general DT chambers map (extended by adding an
    identifier "ALL" in column1 for wheel number)."""


    for wheel in DT_TYPES:
        if wheel[1]=="ALL": continue
        for station in wheel[2]:
            pdir = dt_basedir+'/'+wheel[0]+'/'+station[1]+'/'
            label = "DTvsphi_st%dwh%s" % (int(station[1]), wheelLetter(int(wheel[1])))
            htitle = "wheel %+d, station %s" % (int(wheel[1]), station[1])
            #mapplot(tfiles_plotting, label, "x", window=25., title=htitle, fitsawteeth=True,fitsine=True)
            mapplot(tfiles_plotting, label, "x", window=10., title=htitle, fitsine=True,fitpeaks=True,peaksbins=2)
            c1.SaveAs(pdir+'map_DTvsphi_x.png')
            #mapplot(tfiles_plotting, label, "dxdz", window=25., title=htitle, fitsawteeth=True,fitsine=True)
            mapplot(tfiles_plotting, label, "dxdz", window=10., title=htitle,peaksbins=2)
            c1.SaveAs(pdir+'map_DTvsphi_dxdz.png')

            if station[1]=='4': continue
            #mapplot(tfiles_plotting, label, "y", window=25., title=htitle, fitsawteeth=True,fitsine=True)
            mapplot(tfiles_plotting, label, "y", window=10., title=htitle,peaksbins=2)
            c1.SaveAs(pdir+'map_DTvsphi_y.png')
            #mapplot(tfiles_plotting, label, "dydz", window=25., title=htitle, fitsawteeth=True,fitsine=True)
            mapplot(tfiles_plotting, label, "dydz", window=10., title=htitle,peaksbins=2)
            c1.SaveAs(pdir+'map_DTvsphi_dydz.png')


    qcount=0
    for wheel in DT_TYPES:
        if wheel[1]!="ALL": continue
        for station in wheel[2]:
            for sector in range(1,station[2]+1):
                if qcount>QUICKTESTN: break
                qcount += 1
                ssector = "%02d" % sector
                pdir = dt_basedir+'/'+wheel[0]+'/'+station[1]+'/'+ssector+'/'
                label = "DTvsz_st%ssec%s" % (station[1], ssector)
                htitle = "station %s, sector %d" % (station[1], sector)
                mapplot(tfiles_plotting, label, "x", window=10., title=htitle, peaksbins=2)
                c1.SaveAs(pdir+'map_DTvsz_x.png')
                mapplot(tfiles_plotting, label, "dxdz", window=10., title=htitle, peaksbins=2)
                c1.SaveAs(pdir+'map_DTvsz_dxdz.png')

                if station[1]=='4': continue
                mapplot(tfiles_plotting, label, "y", window=10., title=htitle, peaksbins=2)
                c1.SaveAs(pdir+'map_DTvsz_y.png')
                mapplot(tfiles_plotting, label, "dydz", window=10., title=htitle, peaksbins=2)
                c1.SaveAs(pdir+'map_DTvsz_dydz.png')

    qcount=0
    for wheel in DT_TYPES:
        if wheel[1]!="ALL": continue
        for station in wheel[2]:
            if qcount>QUICKTESTN: break
            qcount += 1
            pdir = dt_basedir+'/'+wheel[0]+'/'+station[1]+'/'
            label = "DTvsz_st%ssecALL" % (station[1])
            htitle = "station %s" % (station[1])

            print(label, end=' ') 
            mapplot(tfiles_plotting, label, "x", window=10., title=htitle, peaksbins=2)
            c1.SaveAs(pdir+'map_DTvsz_all_x.png')
            mapplot(tfiles_plotting, label, "dxdz", window=10., title=htitle, peaksbins=2)
            c1.SaveAs(pdir+'map_DTvsz_all_dxdz.png')

            if station[1]=='4': continue
            mapplot(tfiles_plotting, label, "y", window=10., title=htitle, peaksbins=2)
            c1.SaveAs(pdir+'map_DTvsz_all_y.png')
            mapplot(tfiles_plotting, label, "dydz", window=10., title=htitle, peaksbins=2)
            c1.SaveAs(pdir+'map_DTvsz_all_dydz.png')

    saveTestResultsMap(options.runLabel)

def alignmentValidation.doSegDiffPlotsCSC	(		csc_basedir,
			tfiles_plotting,
			iter_reports
	)

write segment-difference plots for CSC

   segdiff "csc_resid" and "csc_slope"

set of plots of
rphi vs qpt, rphi for positive, rphi for negative ("csc_resid")
drphidz vs qpt, drphidz for positive, drphidz for negative ("csc_slope")
done for ME1-ME2, ME2-ME3, and ME3-ME4 stations combinations with
  endcap "m" or "p" 
  ring 1 or 2
  chamber 1-18 (r1) or 1-36 (r2)
note: there's no ME3-ME4 plots for R2

Interface: could be accessed through a general CSC chambers map, but only for chambers in
stations 2-4 (e.g., station 2 would provide ME1-ME2 plots).

Definition at line 690 of file alignmentValidation.py.

References createfilelist.int, plotscripts.segdiff(), and plotscripts.segdiffvsphicsc().

Referenced by doIterationPlots().

def doSegDiffPlotsCSC(csc_basedir, tfiles_plotting, iter_reports):
    """write segment-difference plots for CSC

   segdiff "csc_resid" and "csc_slope"

    set of plots of
    rphi vs qpt, rphi for positive, rphi for negative ("csc_resid")
    drphidz vs qpt, drphidz for positive, drphidz for negative ("csc_slope")
    done for ME1-ME2, ME2-ME3, and ME3-ME4 stations combinations with
      endcap "m" or "p" 
      ring 1 or 2
      chamber 1-18 (r1) or 1-36 (r2)
    note: there's no ME3-ME4 plots for R2

    Interface: could be accessed through a general CSC chambers map, but only for chambers in
    stations 2-4 (e.g., station 2 would provide ME1-ME2 plots)."""

    qcount = 0
    for iendcap in CSC_TYPES:
        for istation in iendcap[2]:
            if istation[1]=="1": continue
            dstations = (int(istation[1])-1)*10 + int(istation[1])
            for iring in istation[2]:
                if iring[1]=="ALL": continue
                if istation[1]=="4" and iring[1]=="2": continue
                for ichamber in range(1,iring[2]+1):
                    if qcount>QUICKTESTN: break
                    qcount += 1
                    schamber = "%02d" % ichamber
                    pdir = csc_basedir+'/'+iendcap[0]+'/'+istation[1]+'/'+iring[1]+'/'+schamber+'/'
                    segdiff(tfiles_plotting, "csc_resid", dstations, 
                            endcap=iendcap[1], ring=int(iring[1]), chamber=ichamber, window=15.)
                    c1.SaveAs(pdir + 'segdif_csc_resid.png')
                    segdiff(tfiles_plotting, "csc_slope", dstations, 
                            endcap=iendcap[1], ring=int(iring[1]), chamber=ichamber, window=15.)
                    c1.SaveAs(pdir + 'segdif_csc_slope.png')

    """segdiffvsphicsc "csc_resid" and "csc_slope"

  plot for a specific deltaME station differences:
  rphi vs phi of pair ("csc_resid")
  dxdz vs phi of pair ("csc_slope")
  contains plots for two (or one for ME4-ME3) rings
  done for ME1-ME2, ME2-ME3, and ME3-ME4 stations combinations with
    endcap "m" or "p" 
  
  Interface: could be accessed by clicking on ME station boxes, but only for stations 2-4 
  (e.g., station 2 would provide ME1-ME2 plots)."""

    qcount = 0
    for iendcap in CSC_TYPES:
        for istation in iendcap[2]:
            if istation[1]=="1": continue
            dstations = (int(istation[1])-1)*10 + int(istation[1])
            if qcount>QUICKTESTN: break
            qcount += 1
            pdir = csc_basedir+'/'+iendcap[0]+'/'+istation[1]+'/'
            segdiffvsphicsc(tfiles_plotting, "csc_resid", dstations, window=10., endcap=iendcap[1])
            c1.SaveAs(pdir + 'segdifphi_csc_resid.png')
            segdiffvsphicsc(tfiles_plotting, "csc_slope", dstations, window=10., endcap=iendcap[1])
            c1.SaveAs(pdir + 'segdifphi_csc_slope.png')

def alignmentValidation.doSegDiffPlotsDT	(		dt_basedir,
			tfiles_plotting,
			iter_reports
	)

write segment-difference plots for DT

   segdiff "dt13_resid" and "dt13_slope"

set of plots of
x vs qpt, x for positive, x for negative ("dt13_resid")
dxdz vs qpt, dxdz for positive, dxdz for negative ("dt13_slope")
done for MB1-MB2, MB2-MB3, and MB3-MB4 stations combinations with all possible (wheel, sector)

Interface: could be accessed through a general DT chambers map, but only for chambers in
stations 2-4 (e.g., station 2 would provide MB1-MB2 plots).

   segdiff "dt2_resid" and "dt2_slope"

set of plots of
y vs q/pt, y for positive, y for negative ("dt2_resid")
dydz vs q/pt, dydz for positive, dydz for negative ("dt2_slope")
done for MB1-MB2, MB2-MB3 stations combinations with all possible (wheel, sector)

Interface: then the interface would still be a general DT map,
but the info only available from station 2 & 3 chambers.

Definition at line 581 of file alignmentValidation.py.

References funct.abs(), createfilelist.int, plotscripts.segdiff(), plotscripts.segdiff_xalign(), plotscripts.segdiffvsphi(), and plotscripts.segdiffvsphi_xalign().

Referenced by doIterationPlots().

def doSegDiffPlotsDT(dt_basedir, tfiles_plotting, iter_reports):
    """write segment-difference plots for DT

   segdiff "dt13_resid" and "dt13_slope"

    set of plots of
    x vs qpt, x for positive, x for negative ("dt13_resid")
    dxdz vs qpt, dxdz for positive, dxdz for negative ("dt13_slope")
    done for MB1-MB2, MB2-MB3, and MB3-MB4 stations combinations with all possible (wheel, sector)

    Interface: could be accessed through a general DT chambers map, but only for chambers in
    stations 2-4 (e.g., station 2 would provide MB1-MB2 plots).

   segdiff "dt2_resid" and "dt2_slope"

    set of plots of
    y vs q/pt, y for positive, y for negative ("dt2_resid")
    dydz vs q/pt, dydz for positive, dydz for negative ("dt2_slope")
    done for MB1-MB2, MB2-MB3 stations combinations with all possible (wheel, sector)

    Interface: then the interface would still be a general DT map,
    but the info only available from station 2 & 3 chambers."""

    qcount = 0
    for iwheel in DT_TYPES:
        if iwheel[1]=="ALL": continue
        for istation in iwheel[2]:
            if istation[1]=="1": continue
            dstations = (int(istation[1])-1)*10 + int(istation[1])
            #print dstations
            for isector in range(1, istation[2] + 1):
                if isector > 12: continue
                if qcount>QUICKTESTN: break
                qcount += 1
                ssector = "%02d" % isector
                pdir = dt_basedir + '/' + iwheel[0] + '/' + istation[1] + '/' + ssector + '/'

                segdiff(tfiles_plotting, "dt13_resid", dstations, wheel=int(iwheel[1]), sector=isector, window=15.)
                c1.SaveAs(pdir + 'segdif_dt13_resid.png')
                segdiff(tfiles_plotting, "dt13_slope", dstations, wheel=int(iwheel[1]), sector=isector, window=15.)
                c1.SaveAs(pdir + 'segdif_dt13_slope.png')

                if istation[1] != '4':
                    segdiff(tfiles_plotting, "dt2_resid", dstations, wheel=int(iwheel[1]), sector=isector, window=15.)
                    c1.SaveAs(pdir + 'segdif_dt2_resid.png')
                    segdiff(tfiles_plotting, "dt2_slope", dstations, wheel=int(iwheel[1]), sector=isector, window=15.)
                    c1.SaveAs(pdir + 'segdif_dt2_slope.png')

    qcount = 0
    for iwheel in DT_TYPES:
        if iwheel[1]=="ALL": continue
        if abs(int(iwheel[1])) != 2: continue
        for istation in iwheel[2]:
            if istation[1]=="3": continue
            #print dstations
            for isector in range(1, istation[2] + 1):
                ssector = "%02d" % isector
                pdir = dt_basedir + '/' + iwheel[0] + '/' + istation[1] + '/' + ssector + '/'
                if istation[1]=="1":
                    segdiff_xalign(tfiles_plotting, "x_dt1_csc", wheel=int(iwheel[1]), sector=isector, cscstations = "12")
                    c1.SaveAs(pdir + 'segdif_x_dt_csc_resid.png')
                if istation[1]=="2":
                    segdiff_xalign(tfiles_plotting, "x_dt2_csc", wheel=int(iwheel[1]), sector=isector, cscstations = "1")
                    c1.SaveAs(pdir + 'segdif_x_dt_csc_resid.png')

    """segdiffvsphi "dt13_resid" and "dt13_slope"

  plot for a specific wheel #:
  x vs phi of pair ("dt13_resid")
  dxdz vs phi of pair ("dt13_slope")
  contains all three combinations of neighboring stations
  made for all possible wheel values

  Interface: could be accessed by clicking on wheel number under the "wheel" column
  in a general DT map

 segdiffvsphi "dt2_resid" and "dt2_slope"

  plot for a specific wheel #:
  y vs phi of pair ("dt2_resid")
  dydz vs phi of pair ("dt2_slope")
  contains both MB1-MB2 and MB2-MB3 combinations
  made for all possible wheel values

  Interface: could be accessed by clicking on wheel number under the "wheel" column
  in a general DT map"""

    if len(iter_reports)==0: return

    for iwheel in DT_TYPES:
        if iwheel[1]=="ALL": continue
        pdir = dt_basedir + '/' + iwheel[0] + '/'
        segdiffvsphi(tfiles_plotting, iter_reports, "dt13_resid", int(iwheel[1]), window=10.)#, excludesectors=(1,7))
        c1.SaveAs(pdir + 'segdifphi_dt13_resid.png')
        segdiffvsphi(tfiles_plotting, iter_reports, "dt13_slope", int(iwheel[1]), window=10.)#, excludesectors=(1,7))
        c1.SaveAs(pdir + 'segdifphi_dt13_slope.png')
        segdiffvsphi(tfiles_plotting, iter_reports, "dt2_resid", int(iwheel[1]), window=10.)#, excludesectors=(1,7))
        c1.SaveAs(pdir + 'segdifphi_dt2_resid.png')
        segdiffvsphi(tfiles_plotting, iter_reports, "dt2_slope", int(iwheel[1]), window=15.)#, excludesectors=(1,7))
        c1.SaveAs(pdir + 'segdifphi_dt2_slope.png')

    for iwheel in DT_TYPES:
        if iwheel[1]=="ALL": continue
        if abs(int(iwheel[1])) != 2: continue
        pdir = dt_basedir + '/' + iwheel[0] + '/'
        segdiffvsphi_xalign(tfiles_plotting, int(iwheel[1]), window=10.)
        c1.SaveAs(pdir + 'segdifphi_x_dt_csc_resid.png')

def alignmentValidation.idsForFile	(		dir_name,
			file_name
	)

Recursively looks for file named file_name under dir_name directory
and fill the list with dir names converted to IDs 

Definition at line 910 of file alignmentValidation.py.

References dirToID().

Referenced by createCanvasToIDList().

def idsForFile(dir_name, file_name):
    '''Recursively looks for file named file_name under dir_name directory
    and fill the list with dir names converted to IDs 
    '''
    id_list = []
    for f in os.listdir(dir_name):
        dirfile = os.path.join(dir_name, f)
        if os.path.isfile(dirfile) and f==file_name:
            if file_name[-4:]=='.php': id_list.append(dir_name+'/'+file_name)
            else:    id_list.append(dirToID(dir_name))
        # recursively access file names in subdirectories
        elif os.path.isdir(dirfile):
            #print "Accessing directory:", dirfile
            ids = idsForFile(dirfile, file_name)
            if (len(ids)>0): 
                id_list.extend(ids)
    return id_list

def alignmentValidation.isFileUnderDir	(		dir_name,
			file_name
	)

functions definitions

Recursively looks for file named file_name under dir_name directory

Definition at line 280 of file alignmentValidation.py.

Referenced by createCanvasesList().

def isFileUnderDir(dir_name, file_name):
    '''Recursively looks for file named file_name under dir_name directory
    '''
    if not DO_DT and dir_name.find("MB")>-1:
        return False
    if not DO_CSC and dir_name.find("ME")>-1:
        return False

    for f in os.listdir(dir_name):
        dirfile = os.path.join(dir_name, f)
        if os.path.isfile(dirfile) and f==file_name:
            return True
        # recursively access file names in subdirectories
        elif os.path.isdir(dirfile):
            #print "Accessing directory:", dirfile
            if isFileUnderDir(dirfile, file_name): return True
    return False


# to time saving of plots

def alignmentValidation.saveAs

(

nm

)

Definition at line 300 of file alignmentValidation.py.

Referenced by doCurvaturePlotsDT(), doFitFunctionsPlotsCSC(), and doFitFunctionsPlotsDT().

def saveAs(nm): 
    t1 = time.time()
    ddt[15] += 1
    c1.SaveAs(nm)
    tn = time.time()
    ddt[16] = 1./ddt[15]*((ddt[15]-1)*ddt[16] + tn-t1)

Variable Documentation

alignmentValidation.action

Definition at line 81 of file alignmentValidation.py.

string alignmentValidation.allOptions = "-l "

Definition at line 199 of file alignmentValidation.py.

alignmentValidation.args

Definition at line 145 of file alignmentValidation.py.

alignmentValidation.binsdxdz

Definition at line 1039 of file alignmentValidation.py.

alignmentValidation.binsdydz

Definition at line 1039 of file alignmentValidation.py.

alignmentValidation.binsx

Definition at line 1039 of file alignmentValidation.py.

Referenced by CSCValHists.fill2DHist(), CSCValHists.fill2DHistByChamber(), CSCValHists.fill2DHistByCrate(), CSCValHists.fill2DHistByLayer(), CSCValHists.fill2DHistByStation(), CSCValHists.fill2DHistByType(), CSCValHists.fill2DProfile(), CSCValHists.fillProfile(), CSCValHists.fillProfileByChamber(), and CSCValHists.fillProfileByType().

alignmentValidation.binsy

Definition at line 1039 of file alignmentValidation.py.

Referenced by CSCValHists.fill2DHist(), CSCValHists.fill2DHistByChamber(), CSCValHists.fill2DHistByCrate(), CSCValHists.fill2DHistByLayer(), CSCValHists.fill2DHistByStation(), CSCValHists.fill2DHistByType(), and CSCValHists.fill2DProfile().

alignmentValidation.c1 = ROOT.TCanvas("c1","c1",800,600)

do drawing

Definition at line 1024 of file alignmentValidation.py.

Referenced by reco::CompositeCandidate.addDaughter(), reco::NamedCompositeCandidate.addDaughter(), HcalPulseShapes.analyticPulseShapeSiPMHO(), DimuonStatistics.analyze(), GlbMuQualityCutsAnalysis.analyze(), reco::NamedCompositeCandidate.applyRoles(), reco::CompositeCandidate.applyRoles(), TwoBodyDecayModel.cartesianSecondaryMomenta(), condbon.cdbon_write(), checkPhiInRange(), NamedCandCombinerBase.combine(), CandCombinerBase< OutputCollection, CandPtr >.combine(), UrbanMscModel93.ComputeCrossSectionPerAtom(), TwoBodyDecayDerivatives.dqsdm(), TwoBodyDecayDerivatives.dqsdphi(), TwoBodyDecayDerivatives.dqsdpx(), TwoBodyDecayDerivatives.dqsdpy(), TwoBodyDecayDerivatives.dqsdpz(), TwoBodyDecayDerivatives.dqsdtheta(), DTNoiseComputation.endJob(), HOCalibAnalyzer.endJob(), fastInvertPDM2(), SiStripQualityDQM.fillGrandSummaryMEs(), SiStripPedestalsDQM.fillSummaryMEs(), SiStripApvGainsDQM.fillSummaryMEs(), SiStripBackPlaneCorrectionDQM.fillSummaryMEs(), SiStripLorentzAngleDQM.fillSummaryMEs(), SiStripQualityDQM.fillSummaryMEs(), SiStripBaseCondObjDQM.fillSummaryMEs(), heppy::Davismt2.find_high(), hitfit::Chisq_Constrainer.fit(), DTLinearFit.fitNpar(), SiStripCablingDQM.getActiveDetIds(), lumi::fPoly.getCorrection(), GridInterpolator3DException.GridInterpolator3DException(), MonitorElementsDb.htmlOutput(), PFDisplacedVertexHelper.identifyVertex(), identity(), CSCWireGeometry.intersection(), CSCLayerGeometry.intersectionOfTwoLines(), PerigeeConversions.jacobianParameters2Cartesian(), PFDisplacedVertexHelper.lambdaCP(), CSCWireGeometry.lengthOfPlane(), EvolutionECAL.LightCollectionEfficiency(), EvolutionECAL.LightCollectionEfficiencyWeighted(), CSCRadialStripTopology.localError(), TkRadialStripTopology.localError(), main(), makePlots(), FastTrackerRecHitMatcher.match(), SiStripRecHitMatcher.match(), GlobalTrackerMuonAlignment.misalignMuon(), GlobalTrackerMuonAlignment.misalignMuonL(), heppy::Davismt2.mt2_bisect(), heppy::Davismt2.nsols(), funct::GaussIntegrator.operator()(), PhiInterval.PhiInterval(), PFAlgo.processBlock(), DimuonMCMatcher.produce(), proxim(), CSCTFPtMethods.Pt3Stn(), DTConfigDBProducer.readDTCCBConfig(), RectangularEtaPhiRegion.RectangularEtaPhiRegion(), helpers::NamedCompositeCandidateMaker.release(), helpers::CompositePtrCandidateMaker.release(), UrbanMscModel93.SampleCosineTheta(), PFSCEnergyCalibration.SCCorrEtEtaBarrel(), MonitorElement.setAccumulate(), heppy::mt2w_bisect::mt2w.teco(), align.toMatrix(), VVIObj.VVIObj(), sistripvvi::VVIObj.VVIObj(), VVIObjF.VVIObjF(), CSCWireGeometry.wireEnds(), GlobalTrackerMuonAlignment.writeGlPosRcd(), DistanceToCell.~DistanceToCell(), and MatcherUsingTracksAlgorithm.~MatcherUsingTracksAlgorithm().

list alignmentValidation.CANVASES_LIST_TEMPLATE

Definition at line 223 of file alignmentValidation.py.

string alignmentValidation.comdir = "common/"

setup output:

Definition at line 1009 of file alignmentValidation.py.

alignmentValidation.default

Definition at line 40 of file alignmentValidation.py.

alignmentValidation.dest

Definition at line 41 of file alignmentValidation.py.

bool alignmentValidation.DO_CSC = False

Definition at line 168 of file alignmentValidation.py.

bool alignmentValidation.DO_CURVATURE = False

Definition at line 183 of file alignmentValidation.py.

alignmentValidation.DO_DIAGNOSTIC = options.diagnostic

Definition at line 197 of file alignmentValidation.py.

bool alignmentValidation.DO_DT = False

Definition at line 167 of file alignmentValidation.py.

bool alignmentValidation.DO_FIT = False

Definition at line 184 of file alignmentValidation.py.

bool alignmentValidation.DO_MAP = False

Definition at line 181 of file alignmentValidation.py.

bool alignmentValidation.DO_MEDIAN = False

Definition at line 185 of file alignmentValidation.py.

bool alignmentValidation.DO_SEGDIFF = False

Definition at line 182 of file alignmentValidation.py.

string alignmentValidation.fname = options.inputDir+'/'

main script

Definition at line 958 of file alignmentValidation.py.

Referenced by L1TMuonGlobalParams.absIsoCheckMemLUTPath(), L1TMuonGlobalParamsHelper.absIsoCheckMemLUTPath(), HcalTBWriter.analyze(), EcalSRCondTools.analyze(), L1TMuonGlobalParams.bEtaExtrapolationLUTPath(), L1TMuonGlobalParamsHelper.bEtaExtrapolationLUTPath(), L1TMuonGlobalParams.bONegMatchQualLUTPath(), L1TMuonGlobalParamsHelper.bONegMatchQualLUTPath(), L1TMuonGlobalParams.bOPosMatchQualLUTPath(), L1TMuonGlobalParamsHelper.bOPosMatchQualLUTPath(), L1TMuonGlobalParams.bPhiExtrapolationLUTPath(), L1TMuonGlobalParamsHelper.bPhiExtrapolationLUTPath(), clangcms::EDMPluginDumper.checkASTDecl(), convert_boolean(), dd_to_html(), GeometryInfoDump.dumpInfo(), ExternalLHEAsciiDumper.endRun(), L1TMuonGlobalParams.fEtaExtrapolationLUTPath(), L1TMuonGlobalParamsHelper.fEtaExtrapolationLUTPath(), FileBlob.FileBlob(), L1TMuonGlobalParams.fONegMatchQualLUTPath(), L1TMuonGlobalParamsHelper.fONegMatchQualLUTPath(), L1TMuonGlobalParams.fOPosMatchQualLUTPath(), L1TMuonGlobalParamsHelper.fOPosMatchQualLUTPath(), L1TMuonGlobalParams.fPhiExtrapolationLUTPath(), L1TMuonGlobalParamsHelper.fPhiExtrapolationLUTPath(), L1TMuonGlobalParams.fwdNegSingleMatchQualLUTPath(), L1TMuonGlobalParamsHelper.fwdNegSingleMatchQualLUTPath(), L1TMuonGlobalParams.fwdPosSingleMatchQualLUTPath(), L1TMuonGlobalParamsHelper.fwdPosSingleMatchQualLUTPath(), MatacqProducer.getMatacqFile(), popcon::EcalTPGSpikeThresholdfromFile.getNewObjects(), popcon::EcalSRPHandler.getNewObjects(), popcon::EcalTPGPhysicsConstfromFile.getNewObjects(), popcon::EcalLaser_weekly_Linearization.getNewObjects(), popcon::EcalLaser_weekly_Linearization_Check.getNewObjects(), popcon::EcalTPGPedfromFile.getNewObjects(), popcon::EcalTPGLinPed.getNewObjects(), popcon::EcalLaser_weekly_Handler.getNewObjects(), DDLSAX2Handler.getSpaceCount(), TrackingUtility.goToDir(), SiStripUtility.goToDir(), L1TMuonGlobalParams.idxSelMemEtaLUTPath(), L1TMuonGlobalParamsHelper.idxSelMemEtaLUTPath(), L1TMuonGlobalParams.idxSelMemPhiLUTPath(), L1TMuonGlobalParamsHelper.idxSelMemPhiLUTPath(), clangcms::support.isConst(), load_dddefinition(), L1MuGMTLUT.LookupFunctionPacked(), main(), l1t::MicroGMTAbsoluteIsolationCheckLUT.MicroGMTAbsoluteIsolationCheckLUT(), l1t::MicroGMTCaloIndexSelectionLUT.MicroGMTCaloIndexSelectionLUT(), l1t::MicroGMTExtrapolationLUT.MicroGMTExtrapolationLUT(), l1t::MicroGMTRelativeIsolationCheckLUT.MicroGMTRelativeIsolationCheckLUT(), MuonResiduals5DOFFitter.ndata(), MuonResiduals6DOFrphiFitter.ndata(), MuonResiduals6DOFFitter.ndata(), L1TMuonGlobalParams.oEtaExtrapolationLUTPath(), L1TMuonGlobalParamsHelper.oEtaExtrapolationLUTPath(), HcalLuttoDB.openChecksums(), HcalLuttoDB.openPerCrate(), HcalLuttoDB.openPerLut1(), HcalLuttoDB.openPerLut2(), L1TMuonGlobalParams.oPhiExtrapolationLUTPath(), L1TMuonGlobalParamsHelper.oPhiExtrapolationLUTPath(), L1TMuonGlobalParams.ovlNegSingleMatchQualLUTPath(), L1TMuonGlobalParamsHelper.ovlNegSingleMatchQualLUTPath(), L1TMuonGlobalParams.ovlPosSingleMatchQualLUTPath(), L1TMuonGlobalParamsHelper.ovlPosSingleMatchQualLUTPath(), DDLParser.parseFile(), PlotCombiner(), SiStripInformationExtractor.plotHistosFromLayout(), MODCCSHFDat.populateClob(), IODConfig.populateClob(), L1TTwinMuxRawToDigi.processFed(), RPCTriggerConfig.produce(), L1TMuonGlobalParams.relIsoCheckMemLUTPath(), L1TMuonGlobalParamsHelper.relIsoCheckMemLUTPath(), ODLTCConfig.setParameters(), ODTTCFConfig.setParameters(), ODTTCciConfig.setParameters(), ODDCCConfig.setParameters(), ODSRPConfig.setParameters(), ODLaserConfig.setParameters(), gen::Pythia6Service.setSLHAFromHeader(), CmsShowMain.setupDataHandling(), L1TMuonGlobalParams.sortRankLUTPath(), L1TMuonGlobalParamsHelper.sortRankLUTPath(), splitString(), and MODCCSHFDat.writeDB().

alignmentValidation.help

Definition at line 38 of file alignmentValidation.py.

alignmentValidation.i1prefix = options.i1prefix

Definition at line 156 of file alignmentValidation.py.

alignmentValidation.iNprefix = options.iNprefix

Definition at line 159 of file alignmentValidation.py.

alignmentValidation.iter1_reports = []

Definition at line 961 of file alignmentValidation.py.

alignmentValidation.iter1_tfile = None

Definition at line 960 of file alignmentValidation.py.

string alignmentValidation.iteration1 = "iter1"

Definition at line 1010 of file alignmentValidation.py.

string alignmentValidation.iterationN = "iterN"

Definition at line 1011 of file alignmentValidation.py.

alignmentValidation.iterN_reports = []

Definition at line 982 of file alignmentValidation.py.

alignmentValidation.iterN_tfile = None

Definition at line 981 of file alignmentValidation.py.

alignmentValidation.options

Definition at line 145 of file alignmentValidation.py.

alignmentValidation.outdir = options.outputDir

Definition at line 153 of file alignmentValidation.py.

alignmentValidation.parser = optparse.OptionParser(usage)

Definition at line 35 of file alignmentValidation.py.

alignmentValidation.pic_ids = createCanvasToIDList("canvas2id_list.js")

Definition at line 1046 of file alignmentValidation.py.

int alignmentValidation.QUICKTESTN = 10000

Definition at line 216 of file alignmentValidation.py.

alignmentValidation.SINGLE_ITERATION = False

Definition at line 178 of file alignmentValidation.py.

list alignmentValidation.tfiles1_plotting = []

Definition at line 959 of file alignmentValidation.py.

list alignmentValidation.tfilesN_plotting = []

Definition at line 980 of file alignmentValidation.py.

alignmentValidation.type

Definition at line 39 of file alignmentValidation.py.

string alignmentValidation.usage = '%prog [options]\n'

To parse commandline args.

Definition at line 18 of file alignmentValidation.py.

alignmentValidation.windowdxdz

Definition at line 1039 of file alignmentValidation.py.

alignmentValidation.windowdydz

Definition at line 1039 of file alignmentValidation.py.

alignmentValidation.windowx

Definition at line 1039 of file alignmentValidation.py.

alignmentValidation.windowy

Definition at line 1039 of file alignmentValidation.py.