SiStripMonitorClient/scripts/InefficientDoubleROC.py

0001 #!/usr/bin/env python3
0002
0003 from __future__ import print_function
0004 import sys
0005 import math
0006 from ROOT import *
0007 from copy import deepcopy
0008 from scipy import signal
0009
0010 gROOT.SetBatch()        # don't pop up canvases
0011
0012 class InefficientDeadROCs:
0013   ############################################################################
0014
0015   def __TraverseDirTree(self, dir):
0016
0017     for obj in dir.GetListOfKeys():
0018       if not obj.IsFolder():
0019         if obj.ReadObjectAny(TClass.GetClass("TH2")):
0020           th1 = deepcopy(obj.ReadObj())
0021           name = th1.GetName()
0022           if name.startswith(self.lookForStr): #take only module lvl plots
0023             # print(''.join([dir.GetPath(), '/', name]))
0024             newName = name.split(self.lookForStr)[1]
0025             th1.SetName(newName)
0026
0027             # used to sort outputs by disk/layer
0028             layer = 0
0029             # print(newName)
0030             if newName.startswith("B"):
0031               layer = "B" + ((newName.split("_LYR"))[1])[0]
0032             else:
0033               layer = ((newName.split("_D"))[1])[0]
0034               if newName.startswith("FPix_Bm"):
0035                 layer = "-" + layer
0036               layer = "F" + layer
0037
0038             if layer in self.dicOfModuleHistograms:
0039               self.dicOfModuleHistograms[layer].append(th1)
0040             else:
0041               self.dicOfModuleHistograms.update({layer : [th1]})
0042       else:
0043         self.__TraverseDirTree(obj.ReadObj())
0044
0045   def __init__(self, inputDQMName, outputFileName, noiseOutputFileName, dirs):
0046
0047     self.inputFileName = inputDQMName
0048     self.outputFileName = outputFileName
0049     self.noiseOutputFileName = noiseOutputFileName
0050     self.dirs = dirs
0051
0052     self.lookForStr = "digi_occupancy_per_col_per_row_"
0053
0054     self.rocMaxCol = 52
0055     self.rocMaxRow = 80
0056     self.rocsInRow = 8
0057     self.rocsInCol = 2
0058
0059     self.inputFile = TFile(self.inputFileName)
0060     self.dicOfModuleHistograms = {}
0061
0062     ### THRESHOLDS SECTION
0063     self.pixelNoisynessTh = 6
0064     self.rocOccupancyTh = 200
0065
0066     self.barrelNoisyColumnTh = 1.35
0067     self.barrelNoisyColumnTh2 = 4.5
0068     self.endcapNoisyColumnTh = 1.5
0069
0070     self.barrelInefficientDColTh = 8#2.5
0071     self.endcapInefficientDColTh = 30#8
0072
0073     ### ###################
0074
0075     if self.inputFile.IsOpen():
0076       print("%s opened successfully!" % (self.inputFileName))
0077       #Get all neeeded histograms
0078       for dir in self.dirs:
0079         self.__TraverseDirTree(self.inputFile.Get(dir))
0080       print("Histograms to read: %d" % (len(self.dicOfModuleHistograms)))
0081
0082       self.detDict = {}
0083
0084     else:
0085       print("Unable to open file %s" % (self.inputFileName))
0086
0087   def __lmsExp(self, data, xMin, xMax):
0088     meanOfX = (xMax + xMin) * 0.5
0089     meanOfY = sum( [math.log(data[i]) for i in range(len(data))] ) / len(data)
0090
0091     D = 0
0092     for i in range(xMin, xMax + 1):
0093       D = D + (i - meanOfX)**2
0094       # print(D)
0095
0096     a = 0
0097     for i in range(len(data)):
0098       a = a + math.log(data[i]) * (xMin + i - meanOfX)
0099     a = a/D
0100
0101     lnb = meanOfY - a * meanOfX
0102
0103     return a, math.exp(lnb)
0104
0105   def __lmsLin(self, data, xMin, xMax):
0106     meanOfX = (xMax + xMin) * 0.5
0107     meanOfY = sum(data) / len(data)
0108
0109     D = 0
0110     for i in range(xMin, xMax + 1):
0111       D = D + (i - meanOfX)**2
0112
0113     a = 0
0114     for i in range(len(data)):
0115       a = a + data[i] * (xMin + i - meanOfX)
0116     a = a/D
0117
0118     b = meanOfY - a * meanOfX
0119
0120     return a, b, D
0121
0122   def __customMedianFilter(self, array, radius = 2):
0123     # contrary to scipy implementation it provides adaptive kernel size instead of copying data on boundaries
0124     filtered = [0 for i in range(len(array))]
0125     currArray = []
0126     for i in range(len(array)):
0127       if i - radius < 0:
0128         currArray = array[0 : i + radius + 1]
0129       elif i + radius + 1 >= len(array):
0130         currArray = array[i - radius : ]
0131
0132       currArray.sort()
0133       filtered[i] = currArray[len(currArray) // 2]
0134
0135     return filtered
0136
0137   def __getROCData(self, hist, startPixel, endPixel, row, repeatFilter = 3, filterKernelSize = 5):
0138     pixelArr = []
0139     columnsWithSuspiciouslyNoisyPixels = []
0140
0141     for x in range(startPixel, endPixel):
0142
0143       columnPixels = [hist.GetBinContent(x, y + 1) for y in range(row * self.rocMaxRow, (row + 1) * self.rocMaxRow)]
0144       columnSum = sum(columnPixels)
0145
0146       columnMean = columnSum / len(columnPixels)
0147       for i in range(len(columnPixels)):
0148         if columnPixels[i] > self.pixelNoisynessTh * columnMean:
0149           # col = (startPixel % self.rocMaxCol) + 1
0150
0151           columnsWithSuspiciouslyNoisyPixels.append(x)
0152
0153           # print("WARNING:\t %s : %dx%d:%d may contain NOISY PIXELS instead of NOISY COLUMNS" % (hist.GetName(), col, row + 1, startPixel + i))
0154           break
0155
0156       pixelArr.append(columnSum)
0157
0158     if len(pixelArr) == 0:
0159       return None, None, None                                             # ROC down
0160
0161     medFiltRes, sciPyMedFiltRes = deepcopy(pixelArr), deepcopy(pixelArr)
0162     for i in range(repeatFilter):
0163       sciPyMedFiltRes = signal.medfilt(sciPyMedFiltRes, filterKernelSize) # 5 is obligatory to filter doublets!!!
0164       medFiltRes = self.__customMedianFilter(medFiltRes, filterKernelSize // 2)
0165
0166     return pixelArr, medFiltRes, columnsWithSuspiciouslyNoisyPixels, sciPyMedFiltRes
0167
0168   def __getPixelArrWithRemovedDrops(self, pixelArr, medFiltRes):
0169     return [ (pixelArr[i] if pixelArr[i] > medFiltRes[i] else medFiltRes[i]) if 0 < i < len(pixelArr) - 1 else min(medFiltRes) for i in range(len(pixelArr))]
0170
0171   def __normalizeArray(self, pixelArr):
0172     c_min, c_max = min(pixelArr), max(pixelArr)
0173     if c_min != c_max:
0174       c_diff_inv = 1.0 / (c_max - c_min)
0175       return [ (pixelArr[i] - c_min) * c_diff_inv for i in range(len(pixelArr))]
0176     return [0 for i in range(len(pixelArr))]
0177
0178   def __setNormalizedArrayZeroInThePoint(self, pixelArr, pt):
0179     c_diff_inv = 1.0 / (1.0 - pt)
0180
0181     return [ (pixelArr[i] - pt) * c_diff_inv for i in range(len(pixelArr))]
0182
0183   def __determineBarrelNoise(self, noiseFile, columnsWithSuspiciouslyNoisyPixels, histName, meanOfPixels, maxMed, val, pos, rocCol, rocRow):
0184     noisyROC = False;
0185     if meanOfPixels < self.rocOccupancyTh:
0186       #print("Very low mean occupancy: %f in %s in (col, row) (%d, %d)...\tSkipping noisy ROC calculation" % (meanOfPixels, histName, rocCol, rocRow) )
0187       noisyROC = True
0188     else:
0189       th = self.barrelNoisyColumnTh * maxMed
0190       if val > th:
0191         if pos not in columnsWithSuspiciouslyNoisyPixels:
0192           rocNum, xCoordInROC = self.__convertCoordinatesFromHistToROCSpace(histName, pos, rocRow)
0193           noiseFile.write("%s\t(x, row)->[rocNum, xRoc]\t(%d, %d)->[%d, %d];\t{VAL, TH}\t{%f, %f}\n" % (histName, pos, rocRow+1, rocNum, xCoordInROC, val, th))
0194
0195           return 1, noisyROC
0196         # else:
0197           # print("WARNING: rejecting %s (x, row) (%d, %d) as being affected by a few noisy pixel(s)" % (histName, pos, rocRow+1))
0198
0199     return 0, noisyROC
0200
0201   def __determineBarrelNoise2(self, noiseFile, columnsWithSuspiciouslyNoisyPixels, histName, meanOfPixels, normMeanOfPixels, normVal, pos, rocCol, rocRow):
0202     noisyROC = False;
0203     if meanOfPixels < self.rocOccupancyTh:
0204       #print("Very low mean occupancy: %f in %s in (col, row) (%d, %d)...\tSkipping noisy ROC calculation" % (meanOfPixels, histName, rocCol, rocRow) )
0205       noisyROC = True
0206     else:
0207       th = self.barrelNoisyColumnTh2 * normMeanOfPixels
0208       if normVal > th:
0209         if pos not in columnsWithSuspiciouslyNoisyPixels:
0210           rocNum, xCoordInROC = self.__convertCoordinatesFromHistToROCSpace(histName, pos, rocRow)
0211           noiseFile.write("%s\t(x, row)->[rocNum, xRoc]\t(%d, %d)->[%d, %d];\t{NORMVAL, TH}\t{%f, %f}\n" % (histName, pos, rocRow+1, rocNum, xCoordInROC, normVal, th))
0212
0213           return 1, noisyROC
0214         # else:
0215           # print("WARNING: rejecting %s (x, row) (%d, %d) as being affected by a few noisy pixel(s)" % (histName, pos, rocRow+1))
0216
0217     return 0, noisyROC
0218
0219   def __determineEndcapNoise(self, noiseFile, columnsWithSuspiciouslyNoisyPixels, histName, meanOfPixels, linVal, val, pos, rocCol, rocRow):
0220     noisyROC = False;
0221     if meanOfPixels < self.rocOccupancyTh:
0222       # print("Very low mean occupancy: %f in %s in (col, row) (%d, %d)...\tSkipping noisy ROC calculation" % (meanOfPixels, histName, rocCol, rocRow) )
0223       noisyROC = True
0224
0225     else:
0226       th = self.endcapNoisyColumnTh * linVal
0227       if val > th:
0228         if pos not in columnsWithSuspiciouslyNoisyPixels:
0229           rocNum, xCoordInROC = self.__convertCoordinatesFromHistToROCSpace(histName, pos, rocRow)
0230           noiseFile.write("%s\t(x, row)->[rocNum, xRoc]\t(%d, %d)->[%d, %d];\t{VAL, TH}\t{%f, %f}\n" % (histName, pos, rocRow+1, rocNum, xCoordInROC, val, th))
0231
0232           return 1, noisyROC
0233         # else:
0234           # print("WARNING: rejecting %s (x, row) (%d, %d) as being affected by a few noisy pixel(s)" % (histName, pos, rocRow+1))
0235
0236     return 0, noisyROC
0237
0238   def __convertCoordinatesFromHistToROCSpace(self, histName, histXpos, histRow):
0239     tempXROC = (histXpos / self.rocMaxCol) # 0,...,7
0240     tempYROC = histRow
0241
0242     tempXCoordInROC = histXpos % self.rocMaxCol
0243
0244     realXROC, realYROC = tempXROC, tempYROC
0245     xCoordInROC = tempXCoordInROC
0246
0247     rocNum = 0
0248
0249     if histName.find("BPix_Bp") != -1: #zero ROC is in top left corner
0250       realYROC = 1 - tempYROC
0251       if realYROC == 1:
0252         rocNum = 15 - realXROC
0253         xCoordInROC = self.rocMaxCol - 1 - xCoordInROC
0254       else:
0255         rocNum = realXROC
0256     else: # zero ROC is in bottom right corner
0257       realXROC = 7 - tempXROC
0258       if realYROC == 1:
0259         rocNum = 15 - realXROC
0260       else:
0261         rocNum = realXROC
0262         xCoordInROC = self.rocMaxCol - 1 - xCoordInROC
0263
0264     return rocNum, xCoordInROC
0265
0266
0267   def __determineBarrelDColInefficiencyAndNoise(self, medFiltRes, histName, pixelArr, pixelArrWithoutDrops, startPixel, rocCol, rocRow, outputFile, columnsWithSuspiciouslyNoisyPixels, noiseFile):
0268     meanOfPixels = sum(medFiltRes) / len(medFiltRes)
0269     maxMed = max(medFiltRes)
0270     minMed = min(medFiltRes)
0271
0272     normMeanOfPixels = sum(pixelArrWithoutDrops) / len(pixelArrWithoutDrops)
0273     # print( meanOfPixels, maxMed, minMed )
0274
0275     doubleDeadCols = 0
0276     noisyColsNum = 0
0277     noisyROC = 0
0278
0279     # for x in range(startPixel, endPixel, 1):
0280     for i in range(1, len(pixelArr) - 2):
0281       # print(i , i + 1)
0282       bin1valDiff = minMed - pixelArr[i + 0]#hist.GetBinContent(x+0)
0283       bin2valDiff = minMed - pixelArr[i + 1]
0284       # WE ONLY WANT A SET OF TWO COLUMNS SO ADJACENT COLUMNS HAVE TO BE NORMAL
0285       bin0valDiff = minMed - pixelArr[i - 1]
0286       bin3valDiff = minMed - pixelArr[i + 2]
0287
0288       # currentDoubleBinThreshold = minMed / math.sqrt(meanOfPixels) * self.barrelInefficientDColTh # error in bin entry grows as sqrt(N)
0289       currentDoubleBinThreshold = math.sqrt(meanOfPixels) * self.barrelInefficientDColTh # error in bin entry grows as sqrt(N)
0290
0291       if bin1valDiff > currentDoubleBinThreshold and bin2valDiff > currentDoubleBinThreshold and not bin3valDiff > currentDoubleBinThreshold and not bin0valDiff > currentDoubleBinThreshold:
0292
0293         doubleColInRoc = ((i + startPixel) % (self.rocMaxCol)) // 2 + 1
0294         doubleDeadCols = doubleDeadCols + 1
0295
0296         # outputFile.write("%s,\tX: %d-%d\tROC COLUMN: %d\tROC ROW: %d\tDOUBLE COL IN ROC: %d\tTH: %f\tMIN IN ROC: %f\tBINVAL: %f\n" % (histName, startPixel + (i + 0), startPixel + (i + 1), rocCol, rocRow, doubleColInRoc, currentDoubleBinThreshold, minMed, pixelArr[i]))
0297         rocNum, xCoordInROC = self.__convertCoordinatesFromHistToROCSpace(histName, startPixel + i, rocRow)
0298         outputFile.write("%s\t(x, row)->[rocNum, doubleXPixelColInROC]\t(%d, %d)->[%d, %d];\t{MIN - VAL, TH}\t{%f, %f}\n" % (histName, startPixel + i, rocRow + 1, rocNum, xCoordInROC / 2, bin1valDiff, currentDoubleBinThreshold))
0299
0300       # HANDLE NOISY PIXELS
0301       if noisyROC == True:  #don't go inside if noisyness was determined already
0302         continue
0303
0304       # res = self.__determineBarrelNoise(noiseFile, columnsWithSuspiciouslyNoisyPixels, histName, meanOfPixels, maxMed, pixelArr[i], startPixel + i, rocCol, rocRow)
0305       # noisyColsNum, noisyROC = noisyColsNum + res[0], res[1]
0306       # if i == len(pixelArr) - 3: #  CHECK NOISYNESS IN THE RIGHTMOST INNER COL
0307         # res = self.__determineBarrelNoise(noiseFile, columnsWithSuspiciouslyNoisyPixels, histName, meanOfPixels, maxMed, pixelArr[i + 1], startPixel + i + 1, rocCol, rocRow)
0308         # noisyColsNum, noisyROC = noisyColsNum + res[0], res[1]
0309
0310       # NORMALIZED MEAN NOISE DETERMINATION METHOD
0311       res = self.__determineBarrelNoise2(noiseFile, columnsWithSuspiciouslyNoisyPixels, histName, meanOfPixels, normMeanOfPixels, pixelArrWithoutDrops[i], startPixel + i, rocCol, rocRow)
0312       noisyColsNum, noisyROC = noisyColsNum + res[0], res[1]
0313       if i == len(pixelArr) - 3: #  CHECK NOISYNESS IN THE RIGHTMOST INNER COL
0314         res = self.__determineBarrelNoise2(noiseFile, columnsWithSuspiciouslyNoisyPixels, histName, meanOfPixels, normMeanOfPixels, pixelArrWithoutDrops[i + 1], startPixel + i + 1, rocCol, rocRow)
0315         noisyColsNum, noisyROC = noisyColsNum + res[0], res[1]
0316
0317
0318
0319     return doubleDeadCols, noisyColsNum
0320
0321   def __determineEndcapDColInefficiencyAndNoise(self, medFiltRes, histName, pixelArr, startPixel, rocCol, rocRow, outputFile, columnsWithSuspiciouslyNoisyPixels, noiseFile):
0322     doubleDeadCols = 0
0323     noisyColsNum = 0
0324     noisyROC = 0
0325
0326     useLin = True
0327     # <D> might be used for high noise ROC recognition
0328     a, b, D = self.__lmsLin(medFiltRes, startPixel, len(medFiltRes) + startPixel)
0329
0330     meanOfPixels = sum(medFiltRes) / len(medFiltRes)
0331
0332     # for x in range(startPixel, endPixel, 1):
0333     for i in range(1, len(pixelArr) - 2):
0334
0335       if useLin == True:
0336         linVal1 = a * (i + startPixel + 0) + b
0337         linVal2 = a * (i + startPixel + 1) + b
0338
0339         linVal0 = a * (i + startPixel - 1) + b
0340         linVal3 = a * (i + startPixel + 2) + b
0341       else:
0342         linVal1 = b * math.exp(a * (i + startPixel + 0))
0343         linVal2 = b * math.exp(a * (i + startPixel + 1))
0344
0345         linVal0 = b * math.exp(a * (i + startPixel - 1))
0346         linVal3 = b * math.exp(a * (i + startPixel + 2))
0347
0348       bin1valDiff = linVal1 - pixelArr[i + 0]
0349       bin2valDiff = linVal2 - pixelArr[i + 1]
0350       # WE ONLY WANT A SET OF TWO COLUMNS SO ADJACENT COLUMNS HAVE TO BE NORMAL
0351       bin0valDiff = linVal0 - pixelArr[i - 1]
0352       bin3valDiff = linVal3 - pixelArr[i + 2]
0353
0354       try:
0355         currentDoubleBinThreshold = math.sqrt((linVal1 + linVal2) * 0.5) * self.endcapInefficientDColTh
0356       except:
0357         # print(a, b, startPixel, i, linVal1, linVal2)
0358         continue
0359
0360       if bin1valDiff > currentDoubleBinThreshold and bin2valDiff > currentDoubleBinThreshold and not bin3valDiff > currentDoubleBinThreshold and not bin0valDiff > currentDoubleBinThreshold:
0361
0362         doubleColInRoc = ((i + startPixel) % (self.rocMaxCol)) // 2 + 1
0363         doubleDeadCols = doubleDeadCols + 1
0364
0365         # outputFile.write("%s,\tX: %d-%d\tROC COLUMN: %d\tROC ROW: %d\tDOUBLE COL IN ROC: %d\tTH: %f\tLINVAL: %f\tBINVAL: %f\n" % (histName, startPixel + (i + 0), startPixel + (i + 1), rocCol, rocRow, doubleColInRoc, currentDoubleBinThreshold, linVal1, pixelArr[i]))
0366         rocNum, xCoordInROC = self.__convertCoordinatesFromHistToROCSpace(histName, startPixel + i, rocRow)
0367         outputFile.write("%s\t(x, row)->[rocNum, doubleXPixelColInROC]\t(%d, %d)->[%d, %d];\t{LIN(x) - VAL, TH}\t{%f, %f}\n" % (histName, startPixel + i, rocRow + 1, rocNum, xCoordInROC / 2, bin1valDiff, currentDoubleBinThreshold))
0368
0369
0370       # HANDLE NOISY PIXELS
0371       if noisyROC == True:  #don't go inside if noisyness was determined already
0372         continue
0373
0374       res = self.__determineEndcapNoise(noiseFile, columnsWithSuspiciouslyNoisyPixels, histName, meanOfPixels, linVal1, pixelArr[i], i + startPixel, rocCol, rocRow)
0375       noisyColsNum, noisyROC = noisyColsNum + res[0], res[1]
0376       if i == len(pixelArr) - 3: #  CHECK NOISYNESS IN THE RIGHTMOST INNER COL
0377         res = self.__determineEndcapNoise(noiseFile, columnsWithSuspiciouslyNoisyPixels, histName, meanOfPixels, linVal2, pixelArr[i + 1], i + 1 + startPixel, rocCol, rocRow)
0378         noisyColsNum, noisyROC = noisyColsNum + res[0], res[1]
0379
0380     return doubleDeadCols, noisyColsNum
0381
0382   def ReadHistograms(self):
0383     doubleDeadCols, noisyColsNum = 0, 0
0384
0385     with open(self.noiseOutputFileName, "w") as noiseFile:
0386       with open(self.outputFileName, "w") as outputFile:
0387         for layer in self.dicOfModuleHistograms:
0388
0389           doubleDeadColsInLayer, noisyColsNumInLayer = 0, 0
0390
0391           outputFile.write("-> " + layer + "\n\n")
0392           noiseFile.write("-> " + layer + "\n\n")
0393
0394           for hist in self.dicOfModuleHistograms[layer]:
0395             for row in range(2):
0396               for rocNum in range(self.rocsInRow):
0397                 startPixel = rocNum * self.rocMaxCol + 1
0398                 endPixel = (rocNum + 1) * self.rocMaxCol + 1 # - 1 ???
0399
0400                 rocCol = rocNum + 1
0401
0402                 pixelArr, medFiltRes, columnsWithSuspiciouslyNoisyPixels, sciPyMedFiltRes = self.__getROCData(hist, startPixel, endPixel, row, 3, 5)
0403
0404                 if pixelArr == None:
0405                   continue
0406
0407                 # meanOfPixels = sum(pixelArr) / len(pixelArr)
0408                 # pixelArrSorted = deepcopy(pixelArr)
0409                 # pixelArrSorted.sort()
0410                 # outputFile.write("%s: <x> <med_min> VS. <med_max> | x_min:\t%f %f %f | %f, %f, %f, %f\n" % (hist.GetName(), meanOfPixels, min(medFiltRes), max(medFiltRes), pixelArrSorted[0], pixelArrSorted[1], pixelArrSorted[2], pixelArrSorted[3]))
0411
0412                 if "F" not in layer:
0413                   # pixelArrWithoutDrops = self.__getPixelArrWithRemovedDrops(pixelArr, medFiltRes)
0414                   pixelArrWithoutDrops = self.__getPixelArrWithRemovedDrops(pixelArr, sciPyMedFiltRes)
0415                   pixelArrWithoutDropsNormalized = self.__normalizeArray(pixelArrWithoutDrops)
0416                   # tmp_mean = sum(pixelArrWithoutDropsNormalized) / len(pixelArrWithoutDropsNormalized)
0417                   # pixelArrWithoutDropsNormalized = self.__setNormalizedArrayZeroInThePoint(pixelArrWithoutDropsNormalized, tmp_mean)
0418
0419                   # print(min(pixelArrWithoutDropsNormalized), max(pixelArrWithoutDropsNormalized))
0420                   result = self.__determineBarrelDColInefficiencyAndNoise(medFiltRes, hist.GetName(), pixelArr, pixelArrWithoutDropsNormalized, startPixel, rocCol, row, outputFile, columnsWithSuspiciouslyNoisyPixels, noiseFile)
0421                 else:
0422                   result = self.__determineEndcapDColInefficiencyAndNoise(medFiltRes, hist.GetName(), pixelArr, startPixel, rocCol, row, outputFile, columnsWithSuspiciouslyNoisyPixels, noiseFile)
0423
0424                 doubleDeadCols, doubleDeadColsInLayer = doubleDeadCols + result[0], doubleDeadColsInLayer + result[0]
0425                 noisyColsNum, noisyColsNumInLayer = noisyColsNum + result[1], noisyColsNumInLayer + result[1]
0426
0427           outputFile.write("\n\tTOTAL IN LAYER/DISK: %d\n\n" % (doubleDeadColsInLayer))
0428           noiseFile.write("\n\tTOTAL IN LAYER/DISK: %d\n\n" % (noisyColsNumInLayer))
0429
0430     print("Number of inefficient double columns: %d"%(doubleDeadCols))
0431     print("Number of noisy cols: %d"%(noisyColsNum))
0432
0433
0434 #--+--+--+--+--+--+--+--+--+--+--+--+--+--+--+--+--+--+--+--+--+--+--+--+--+--+--+--+--+--+--+--+--
0435 for i in range(1, len(sys.argv), 1):
0436   if i == 1:
0437     inputFileName = sys.argv[i]
0438
0439 runNum = ((inputFileName.split("/")[-1].split("."))[0].split("_R000"))[1]
0440 print("Run number: %s"%(runNum))
0441 baseRootDir = ["DQMData/Run " + runNum + "/PixelPhase1/Run summary/Phase1_MechanicalView"]
0442 print(baseRootDir[0])
0443 outputFileName = "inefficientDPixelColumns.txt"
0444 noiseOutputFileName = "noisyPixelColumns.txt"
0445
0446 readerObj = InefficientDeadROCs(inputFileName, outputFileName, noiseOutputFileName, baseRootDir)
0447 readerObj.ReadHistograms()