Exemplo n.º 1
0
def binDiffYUV(srcFile, srcNumber, width, height, start, end, dstDir):
    pngNames = []
    pngNumber = 0
    frameSize = int(width * height * 3 / 2)
    ysize = width * height
    usize = (width * height) // 4

    with open(srcFile, "rb") as f:
        allbytes = np.fromfile(f, 'u1')

    numFrames = int(allbytes.shape[0] // frameSize)
    allbytes = allbytes.reshape((numFrames, frameSize))

    for frameNumber in range(start, end - 1):
        pngName = os.path.join(dstDir,
                               "{}_{}.png".format(srcNumber, pngNumber))
        one = allbytes[frameNumber, :]
        two = allbytes[(frameNumber + 1), :]
        diff = abs(one - two)

        #Here we do the binarising...!
        myFrame = np.copy(diff)
        myFrame[(width * height):] = 128
        #y = myFrame[0:(width*height)]
        #u = myFrame[ysize:(ysize+usize)]
        #v = myFrame[(ysize+usize):]

        frame = functions.YUV420_2_YUV444(myFrame, height, width)
        rgbframe = functions.planarYUV_2_planarRGB(frame, height, width)
        savePic(pngName, rgbframe, width, height)
        pngNames.append(pngName)
        pngNumber = pngNumber + 1

    return pngNames
Exemplo n.º 2
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def YUVFramesToPNGs(srcFile,
                    srcNumber,
                    width,
                    height,
                    start,
                    end,
                    dstDir,
                    resize=False):
    pngNames = []
    frameSize = int(width * height * 3 / 2)

    with open(srcFile, "rb") as f:
        allbytes = np.fromfile(f, 'u1')

    numFrames = int(allbytes.shape[0] // frameSize)
    allbytes = allbytes.reshape((numFrames, frameSize))
    print("Converting YUV to PNG files: {} frames".format(numFrames))
    print(allbytes.shape)

    pngNumber = 0
    for frameNumber in range(start, end):
        pngName = os.path.join(dstDir,
                               "{}_{}.png".format(srcNumber, pngNumber))
        print("Save {}".format(pngName))

        myFrame = allbytes[frameNumber, :]
        frame = functions.YUV420_2_YUV444(myFrame, height, width)
        rgbframe = functions.planarYUV_2_planarRGB(frame, height, width)
        savePic(pngName, rgbframe, width, height, resize)
        pngNames.append(pngName)
        pngNumber = pngNumber + 1
    return pngNames
Exemplo n.º 3
0
def extractPixelPatch(filename,
                      frameNo,
                      mbNo,
                      frameW,
                      frameH,
                      channels=1.5,
                      patchW=16,
                      patchH=16,
                      xstride=16,
                      ystride=16,
                      lborder=8,
                      rborder=8,
                      tborder=8,
                      bborder=8):
    frameSize = int(frameW * frameH * channels)
    bytePos = frameSize * frameNo
    mbwidth = int(width / 16)
    mbheight = int(height / 16)
    mbsize = mbwidth * mbheight

    with open(filename, "rb") as f:
        f.seek(bytePos)
        pixels = f.read(frameSize)
        pixels = bytearray(pixels)
        # Adding the border to the frame saves us worrying about testing borders during patch-ification
        frame444 = functions.YUV420_2_YUV444(pixels, height, width)
        frame444, newWidth, newHeight = encodeYUV.addABorder(
            frame444, width, height, lborder, rborder, tborder, bborder)

    # with the border, (lborder, tborder) is the top left of the first macroblock
    ySize = newWidth * newHeight
    uvSize = newWidth * newHeight
    frameData = frame444
    yData = frameData[0:ySize]
    uData = frameData[ySize:(ySize + uvSize)]
    vData = frameData[(ySize + uvSize):(ySize + uvSize + uvSize)]
    yData = yData.reshape(newHeight, newWidth)
    uData = uData.reshape(newHeight, newWidth)
    vData = vData.reshape(newHeight, newWidth)

    xCo = int((mbNo % mbsize) * 16)
    yCo = int(((mbNo - xCo) % mbsize) * 16)

    patchY = yData[yCo:(yCo + patchH), xCo:(xCo + patchW)]
    patchU = uData[yCo:(yCo + patchH), xCo:(xCo + patchW)]
    patchV = vData[yCo:(yCo + patchH), xCo:(xCo + patchW)]

    yuv = np.concatenate(
        (np.divide(patchY.flatten(), 8), np.divide(
            patchU.flatten(), 8), np.divide(patchV.flatten(), 8)),
        axis=0)
    yuv = yuv.flatten()
    return yuv
Exemplo n.º 4
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def getBGRFrameFromYUV420File(filename, width, height, frameNumber, RGB=False):
    yuvFrameSize = int(width * height * 3 / 2)
    bytePos = yuvFrameSize * frameNumber
    offEnd = 0
    with open(filename, "rb") as f:
        #pixels = []
        #for i in range(0, yuvFrameSize):
        #    pixels = f.read(yuvFrameSize)
        #    pixel = struct.unpack('c', p)
        #    pixels.append(pixels)
        #print(pixels)
        #print(bytePos)
        f.seek(bytePos)
        pixels = f.read(yuvFrameSize)
        pixels = bytearray(pixels)

        #print("Obtained len {} vs {}".format(len(pixels), yuvFrameSize))

        if len(pixels) != yuvFrameSize:
            #wrap round when we get to the end...
            f.seek(0)
            pixels = f.read(yuvFrameSize)
            pixels = bytearray(pixels)
            offEnd = 1

        pixels = np.asarray(pixels)
        #print("The pixels size: {}".format(pixels.shape))
        yuv444 = functions.YUV420_2_YUV444(pixels, height, width)
        if RGB:
            pixels = functions.planarYUV_2_planarRGB(yuv444, height, width)
        else:
            pixels = functions.planarYUV_2_planarBGR(yuv444, height, width)
        pixels = pixels.reshape((3, height, width))
        pixels = np.swapaxes(pixels, 0, 1)
        pixels = np.swapaxes(pixels, 1, 2)
    return offEnd, pixels
Exemplo n.º 5
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def patchABitOfOneFile(fileIn,
                       fileOut,
                       start=0,
                       end=0,
                       label="qp",
                       cropDim=80,
                       cropTempStep=1,
                       cropSpacStep=16,
                       num_channels=3,
                       bit_depth=8):
    width, height = getDimsFromFileName(fileIn)
    patchList = []
    #print("Width is {}, height is {}".format(width, height))
    if label == "qp":
        qp = getQuantFromFileName(fileIn)
        if qp < 0:
            qp = 0
        label = int(qp / 7)
        label = qp
        label = int(qp / 2)
        label = int(qp / 3)
        print(label)
    if label == "qp_only":
        qp = getQuantFromFileName(fileIn)
        print("Got qp {} from {}".format(qp, fileIn))
        if qp < 0:
            qp = 0
        label = int(qp)
    if label == "none":
        label = 0

    frameSize = width * height * 3 // 2
    print("The file is {} with width {}, height {}, label {}".format(
        fileIn, width, height, label))

    with open(fileIn, "rb") as f:
        mybytes = np.fromfile(f, 'u1')
    print("There are {} bytes in the file width: {} height: {}".format(
        len(mybytes), width, height))
    num_frames = len(mybytes) / frameSize
    print("There are {} frames".format(num_frames))

    if end == 0:
        end = num_frames

    for f in range(start, end, cropTempStep):
        #print("Frame number {}".format(f))
        start = f * frameSize
        end = start + frameSize
        myframe = mybytes[start:end]
        my444frame = functions.YUV420_2_YUV444(myframe, height, width)

        patches = makeNormalisedPatches(my444frame, width, height, cropDim,
                                        cropDim, cropSpacStep, num_channels,
                                        bit_depth, label)
        patchList.extend(patches)

    patches_array = np.array(patchList)

    patches_array = patches_array.flatten()
    patchSize = (cropDim * cropDim * 3) + 1
    numPatches = patches_array.shape[0] / patchSize
    print("Dims: {}, numPatches {}".format(patches_array.shape, numPatches))
    patches_array = patches_array.reshape((numPatches, patchSize))

    ############## Here's where you name the files!!!!###########

    multipleOutFiles = False
    if multipleOutFiles:
        numBinFiles = 10
        patchesPerFile = numPatches // numBinFiles
        if numPatches < 100:
            patchesPerFile = 1

        for i in range(0, (numBinFiles - 1)):
            outFileName = "{}_{}.bin".format(fileOut, i)
            start = patchesPerFile * i
            end = start + patchesPerFile
            arrayCut = patches_array[start:end, :]
            outFileName = os.path.join(cropDir, outFileName)
            functions.appendToFile(arrayCut, outFileName)

        # the last file is a bit bigger
        outFileName = "{}_{}.bin".format(binFileName, numBinFiles)
        start = patchesPerFile * (numBinFiles - 1)
        arrayCut = patches_array[start:, :]
        outFileName = os.path.join(cropDir, outFileName)
        functions.appendToFile(arrayCut, outFileName)
    else:
        functions.appendToFile(patches_array, fileOut)
    return numPatches
Exemplo n.º 6
0
        print("There are {} bytes in the file width: {} height: {}".format(
            len(mybytes), width, height))
        num_frames = len(mybytes) / frameSize
        print("There are {} frames".format(num_frames))

        for f in range(0, num_frames, cropTempStep):
            print("Frame number {}".format(f))
            if f in avoidFrames:
                print("Avoiding frame {}".format(f))
                f = f + 1
                if f > num_frames:
                    break
            start = f * frameSize
            end = start + frameSize
            myframe = mybytes[start:end]
            my444frame = functions.YUV420_2_YUV444(myframe, height, width)

            patches = makeNormalisedPatches(my444frame, width, height, cropDim,
                                            cropDim, cropSpacStep,
                                            num_channels, bit_depth, label)
            patchList.extend(patches)

    patches_array = np.array(patchList)

    # DEBUGGING starts here!!!!!

    patches_array = patches_array.flatten()
    patchSize = (cropDim * cropDim * 3) + 1
    print(patches_array.shape)
    numPatches = patches_array.shape[0] / patchSize
    print("Dims: {}, numPatches {}".format(patches_array.shape, numPatches))
Exemplo n.º 7
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def extractPatchesAndReturnWholeFile(fileName,
                                     frameW,
                                     frameH,
                                     channels=1.5,
                                     patchW=32,
                                     patchH=32,
                                     xstride=16,
                                     ystride=16,
                                     lborder=8,
                                     rborder=8,
                                     tborder=8,
                                     bborder=8):
    patchesList = []
    numPatches = 0
    frameSize = int(frameW * frameH * channels)

    mbwidth = int(width / 16)
    mbheight = int(height / 16)
    mbsize = mbwidth * mbheight
    with open(fileName, "rb") as f:
        pixels = f.read()
        allpixels = bytearray(pixels)

    bytePos = 0
    print("We have {} pixels in total".format(len(allpixels)))
    while bytePos < len(allpixels):
        print("Frame: {}".format(bytePos // frameSize))
        print("The byte position in the yuv file {}: {}".format(
            fileName, bytePos))
        nextBytePos = (bytePos + frameSize)

        # Adding the border to the frame saves us worrying about testing borders during patch-ification
        pixels = allpixels[bytePos:nextBytePos]
        frame444 = functions.YUV420_2_YUV444(pixels, height, width)
        frame444, newWidth, newHeight = encodeYUV.addABorder(
            frame444, width, height, lborder, rborder, tborder, bborder)

        frameData = frame444
        ySize = newWidth * newHeight
        uvSize = newWidth * newHeight
        frameData = frame444
        yData = frameData[0:ySize]
        uData = frameData[ySize:(ySize + uvSize)]
        vData = frameData[(ySize + uvSize):(ySize + uvSize + uvSize)]
        yData = yData.reshape(newHeight, newWidth)
        uData = uData.reshape(newHeight, newWidth)
        vData = vData.reshape(newHeight, newWidth)
        pixelSample = 0
        xCo = 0
        yCo = 0
        maxPixelSample = ((height - patchH) * width) + (width - patchW)
        #print("maxPixelSample: {}".format(maxPixelSample))
        #print("newHeight: {} and {}".format(newHeight, (1 + newHeight - patchH)))
        while yCo < (1 + newHeight - patchH):
            #print("Taking sample from: ({}, {})".format(xCo, yCo))
            patchY = yData[yCo:(yCo + patchH), xCo:(xCo + patchW)]
            patchU = uData[yCo:(yCo + patchH), xCo:(xCo + patchW)]
            patchV = vData[yCo:(yCo + patchH), xCo:(xCo + patchW)]

            #print("patch dims: y {} u {} v {}".format(patchY.shape, patchU.shape, patchV.shape))
            yuv = np.concatenate(
                (np.divide(patchY.flatten(), 8), np.divide(
                    patchU.flatten(), 8), np.divide(patchV.flatten(), 8)),
                axis=0)
            #print("patch dims: {}".format(yuv.shape))
            yuv = yuv.flatten()
            patchesList.append(yuv)
            numPatches = numPatches + 1

            xCo = xCo + xstride
            if xCo > (1 + newWidth - patchW):
                xCo = 0
                yCo = yCo + ystride
            #print("numPatches: {}".format(numPatches))
            #print(yCo)
        bytePos += frameSize

    patches_array = np.array(patchesList)
    #np.random.shuffle(patches_array)
    return patches_array
def processFilePair(o, a, tidyUp=False, crop=True, saveOneFrame=True):
    dims = getAVIFileDims(o)
    width, height = getDimsFromFileName(dims)
    channels = 3
    frameSize = (width * height * 3) // 2
    print("Dimensions are {} x {}, frame size {}".format(width, height, frameSize))
    oyuvname = convertAVItoYUV(o)
    ayuvname = convertAVItoYUV(a)
    print("files are {} and {}".format(oyuvname, ayuvname))

    oyuv = np.fromfile(oyuvname, 'u1')
    ayuv = np.fromfile(ayuvname, 'u1')

    #print(oyuv.shape)

    oFrame = oyuv[0:frameSize]
    aFrame = ayuv[0:frameSize]

    if crop == False:
        dims = "oneFrame_{}x{}".format(width, height)
        oCropName = o.replace(".avi", "_{}.yuv".format(dims))
        aCropName = a.replace(".avi", "_{}.yuv".format(dims))
        f.saveToFile(oFrame, oCropName)
        f.saveToFile(aFrame, aCropName)
        #return

    odata = f.YUV420_2_YUV444(oFrame, height, width)
    adata = f.YUV420_2_YUV444(aFrame, height, width)

    odata = odata.reshape((channels, height, width))
    adata = adata.reshape((channels, height, width))



    diff = abs(odata - adata)
    if saveOneFrame == True:
        diff420 = f.YUV444_2_YUV420(diff, height, width)
        maskFileName = o.replace(".avi", "_{}.yuv".format(dims))
        maskFileName = maskFileName.replace("original", "mask")
        f.saveToFile(diff420, maskFileName)

    if crop == True:
        diffY = diff[0:(width*height)]
        diffInds1 = np.nonzero(diff)
        minX = np.amin(diffInds1[2])
        maxX = np.amax(diffInds1[2])
        minY = np.amin(diffInds1[1])
        maxY = np.amax(diffInds1[1])
        print("bounding box ({},{}) to ({},{})".format(minX, minY, maxX, maxY))
        # Adjust the cropped region by adding a border
        alignTo16grid = True
        minX = addBorder(minX, width, alignTo16grid, -8)
        maxX = addBorder(maxX, width, alignTo16grid, 8)
        minY = addBorder(minY, height, alignTo16grid, -8)
        maxY = addBorder(maxY, height, alignTo16grid, 8)
        if (maxX - minX) < 96:
            maxX = minX + 96
        if (maxY - minY) < 96:
            maxY = minY + 96
        print("adjusted bounding box ({},{}) to ({},{})".format(minX, minY, maxX, maxY))

        croppedWidth = maxX - minX
        croppedHeight = maxY - minY
        dims = "cropped_{}x{}".format(croppedWidth, croppedHeight)
        odata = odata.reshape((channels, height, width))
        adata = adata.reshape((channels, height, width))
        oROI = odata[:, minY:maxY, minX:maxX]
        aROI = adata[:, minY:maxY, minX:maxX]

        # Now save the crops to a file:
        oCropName = o.replace(".avi", "_{}.yuv".format(dims))
        aCropName = a.replace(".avi", "_{}.yuv".format(dims))
        oROI420 = f.YUV444_2_YUV420(oROI, croppedHeight, croppedWidth)
        aROI420 = f.YUV444_2_YUV420(aROI, croppedHeight, croppedWidth)
        f.saveToFile(oROI420, oCropName)
        f.saveToFile(aROI420, aCropName)
        print("Made files {} and {}".format(oCropName, aCropName))

    if tidyUp:
        os.remove(oyuvname)
        os.remove(ayuvname)
def compressWithConstantQuant(inputFileName,
                              theOutputFileName,
                              qps=[
                                  0,
                              ],
                              patchWidth=256,
                              patchHeight=256,
                              patchChannels=3,
                              labelSize=1):
    pixelSize = patchWidth * patchHeight * patchChannels
    recordSize = labelSize + pixelSize
    bitDepth = 8

    with open(inputFileName, "rb") as f:
        allTheData = np.fromfile(f, 'u1')
    numRecords = allTheData.shape[0] / recordSize
    allTheData = allTheData.reshape(numRecords, recordSize)
    print(allTheData.shape)

    # Convert each picture to a YUV file
    tempYUVFileName = "temp_{}x{}.yuv".format(patchWidth, patchHeight)
    open(tempYUVFileName, 'w').close()

    labels = allTheData[:, 0].copy()
    yuvFrames = allTheData[:, 1:].copy()
    yuvFrames = yuvFrames * bitDepth
    print("Saving frames to {}, shape {}".format(tempYUVFileName,
                                                 yuvFrames.shape))
    for frame in yuvFrames:
        #print("Frame")
        yuv420 = functions.YUV444_2_YUV420(frame, patchWidth, patchHeight)
        functions.appendToFile(yuv420, tempYUVFileName)

    # encode that file as all intra...
    for qp in qps:
        tempH264FileName = "temp_{}x{}_{}.264".format(patchWidth, patchHeight,
                                                      qp)
        tempDecompFileName = "temp_{}x{}_{}_decomp.yuv".format(
            patchWidth, patchHeight, qp)
        open(tempH264FileName, 'w').close()
        open(tempDecompFileName, 'w').close()
        #outputFileName = theOutputFileName.replace('.bin', '_{}.bin'.format(qp))
        outputFileName = theOutputFileName.replace('/t', '/qp{}/t'.format(qp))
        functions.compressFile(x264,
                               tempYUVFileName,
                               patchWidth,
                               patchHeight,
                               qp,
                               tempH264FileName,
                               tempDecompFileName,
                               deblock=False,
                               intraOnly=True,
                               verbose=False)

        # read in the decompressed YUV file:
        with open(tempDecompFileName, "rb") as f:
            allTheYUV420 = np.fromfile(f, 'u1')
        allTheYUV420 = allTheYUV420.reshape((numRecords, -1))
        datasetList = []
        for idx, frame in enumerate(allTheYUV420):
            datayuv = functions.YUV420_2_YUV444(frame, patchWidth, patchHeight)
            datayuv = np.divide(datayuv, 8)
            label = labels[idx]
            datayuv = np.concatenate((np.array([label]), datayuv), axis=0)
            datayuv = datayuv.flatten()
            datasetList.append(datayuv)

        dataset_array = np.array(datasetList)
        print("Size of Dataset: {}".format(dataset_array.shape))
        functions.appendToFile(dataset_array, outputFileName)

    print("All done!")
Exemplo n.º 10
0
def prepareDataForHeatMapGeneration():
    print("Preparing a bin file that's suitable for a heat map")
    patchDim = 80
    patchStride = 16  # for macroblock-ness
    fileList = [['/Users/pam/Documents/data/yuv/flower_1f_q0.yuv', 352, 288],
                ['/Users/pam/Documents/data/yuv/flower_1f_q7.yuv', 352, 288],
                ['/Users/pam/Documents/data/yuv/flower_1f_q14.yuv', 352, 288],
                ['/Users/pam/Documents/data/yuv/flower_1f_q21.yuv', 352, 288],
                ['/Users/pam/Documents/data/yuv/flower_1f_q28.yuv', 352, 288],
                ['/Users/pam/Documents/data/yuv/flower_1f_q35.yuv', 352, 288],
                ['/Users/pam/Documents/data/yuv/flower_1f_q42.yuv', 352, 288],
                ['/Users/pam/Documents/data/yuv/flower_1f_q49.yuv', 352, 288]]
    fileList = [
        [
            '/Users/pam/Documents/data/SULFA/forged_sequences_avi/01_forged_1f.yuv',
            320, 240
        ],
        [
            '/Users/pam/Documents/data/SULFA/forged_sequences_avi/01_original_1f.yuv',
            320, 240
        ]
    ]
    fileList = [[
        '/Users/pam/Documents/data/DeepFakes/creepy2_1f.yuv', 1280, 720
    ]]
    for file in fileList:
        filename = file[0]
        fileBaseName, ext = os.path.splitext(filename)
        width = file[1]
        height = file[2]
        frameSize = height * width * 3 / 2  # for i420 only
        try:
            quant = getQuant(filename)
        except:
            quant = 0
        print("The quant for {} is {}".format(quant, filename))
        with open(filename, "rb") as f:
            allTheData = np.fromfile(f, 'u1')
        print(allTheData.shape)
        numFrames = allTheData.shape[0] / frameSize
        print("There's {} frames".format(numFrames))

        frameData = allTheData
        frame444 = functions.YUV420_2_YUV444(frameData, height, width)
        frame444, newWidth, newHeight = addABorder(frame444, width, height, 32,
                                                   32, 32, 32)
        outFileName = "{}.YUV444_{}x{}".format(fileBaseName, newWidth,
                                               newHeight)
        functions.appendToFile(frame444, outFileName)

        # And now the generation of patches
        patchesList = []
        numPatches = 0
        filesWritten = 0
        frameData = frame444
        ySize = newWidth * newHeight
        uvSize = newWidth * newHeight
        yData = frameData[0:ySize]
        uData = frameData[ySize:(ySize + uvSize)]
        vData = frameData[(ySize + uvSize):(ySize + uvSize + uvSize)]
        # print("yData shape: {}".format(yData.shape))
        # print("uData shape: {}".format(uData.shape))
        # print("vData shape: {}".format(vData.shape))
        yData = yData.reshape(newHeight, newWidth)
        uData = uData.reshape(newHeight, newWidth)
        vData = vData.reshape(newHeight, newWidth)
        pixelSample = 0
        xCo = 0
        yCo = 0
        maxPixelSample = (
            (newHeight - patchDim) * newWidth) + (newWidth - patchDim)
        # print("maxPixelSample: {}".format(maxPixelSample))
        while yCo <= (newHeight - patchDim):
            # print("Taking sample from: ({}, {})".format(xCo, yCo))
            patchY = yData[yCo:(yCo + patchDim), xCo:(xCo + patchDim)]
            patchU = uData[yCo:(yCo + patchDim), xCo:(xCo + patchDim)]
            patchV = vData[yCo:(yCo + patchDim), xCo:(xCo + patchDim)]

            # print("patch dims: y {} u {} v {}".format(patchY.shape, patchU.shape, patchV.shape))
            yuv = np.concatenate(
                (np.divide(patchY.flatten(), 8), np.divide(
                    patchU.flatten(), 8), np.divide(patchV.flatten(), 8)),
                axis=0)
            # print("patch dims: {}".format(yuv.shape))
            yuv = yuv.flatten()
            datayuv = np.concatenate((np.array([quant]), yuv), axis=0)
            datayuv = datayuv.flatten()
            patchesList.append(datayuv)
            numPatches = numPatches + 1

            xCo = xCo + patchStride
            if xCo > (newWidth - patchDim):
                xCo = 0
                yCo = yCo + patchStride
            pixelSample = (yCo * newWidth) + xCo

            patches_array = np.array(patchesList)
            print("Dims: {}, numPatches {}".format(patches_array.shape,
                                                   numPatches))
            ############## Here's where you name the files!!!!###########
            outFileName = "{}.bin".format(fileBaseName)
            outFileName = "patches_test_{}.bin".format(quant)
            functions.appendToFile(patches_array, outFileName)
            patchesList = []

        #Add more "patches" so that we have blank patches up to a multiple of 128 (batch size)
        batchPatchNum = (np.ceil(numPatches / 128.0) * 128) - numPatches
        print("Adding a further {} patches to round to batches".format(
            batchPatchNum))
        patchY = np.full([patchDim, patchDim], 0)
        patchU = np.full([patchDim, patchDim], 128)
        patchV = np.full([patchDim, patchDim], 128)
        while batchPatchNum > 0:
            yuv = np.concatenate(
                (np.divide(patchY.flatten(), 8), np.divide(
                    patchU.flatten(), 8), np.divide(patchV.flatten(), 8)),
                axis=0)
            # print("patch dims: {}".format(yuv.shape))
            yuv = yuv.flatten()
            datayuv = np.concatenate((np.array([quant]), yuv), axis=0)
            datayuv = datayuv.flatten()
            patchesList.append(datayuv)
            patches_array = np.array(patchesList)
            functions.appendToFile(patches_array, outFileName)
            patchesList = []
            batchPatchNum = batchPatchNum - 1