def setUp(self):
frame = cvLoadImage(image_fname)
frame_size = cvGetSize(frame)
r = cvCreateImage(frame_size, 8, 1)
g = cvCreateImage(frame_size, 8, 1)
b = cvCreateImage(frame_size, 8, 1)
cvSplit(frame, r, g, b, None)
self.rgb = (r, g, b)
assert frame is not None
hist_size = [64, 64, 64]
ranges = [[0, 255], [0, 255], [0, 255]]
self.hist = cvCreateHist(hist_size, CV_HIST_ARRAY, ranges, 1)
def setUp(self):
frame = cvLoadImage(image_fname)
frame_size = cvGetSize(frame)
r = cvCreateImage(frame_size, 8, 1)
g = cvCreateImage(frame_size, 8, 1)
b = cvCreateImage(frame_size, 8, 1)
cvSplit(frame, r, g, b, None)
self.rgb = (r, g, b)
assert (frame is not None)
hist_size = [64, 64, 64]
ranges = [[0, 255], [0, 255], [0, 255]]
self.hist = cvCreateHist(hist_size, CV_HIST_ARRAY, ranges, 1)
def PIL2Ipl(input):
"""Converts a PIL image to the OpenCV/IPL CvMat data format.
Supported input image formats are:
RGB
L
F
"""
if not (isinstance(input, PIL.Image.Image)):
raise TypeError, 'Must be called with PIL.Image.Image!'
# mode dictionary:
# (pil_mode : (ipl_depth, ipl_channels)
mode_list = {
"RGB": (cv.IPL_DEPTH_8U, 3),
"L": (cv.IPL_DEPTH_8U, 1),
"F": (cv.IPL_DEPTH_32F, 1)
}
if not mode_list.has_key(input.mode):
raise ValueError, 'unknown or unsupported input mode'
result = cv.cvCreateImage(
cv.cvSize(input.size[0], input.size[1]), # size
mode_list[input.mode][0], # depth
mode_list[input.mode][1] # channels
)
# set imageData
result.imageData = input.tostring()
return result
def __init__(self):
self.active = False
self.contours_image = cv.cvCreateImage((640, 480), 8, 3)
self.dwidth = 240
self.dheight = 180
self.loops = 0
self.preview_image = cv.CreateImage((self.dwidth, self.dheight),
cv.IPL_DEPTH_8U, 3)
n = self.dwidth * self.dheight * 3
raw = (ctypes.c_ubyte * n)()
for x in range(n):
raw[x] = 64
ptr = ctypes.pointer(raw)
pix = gtk.gdk_pixbuf_new_from_data(
ptr,
gtk.GDK_COLORSPACE_RGB,
False, # ALPHA
8, # bits per sample
self.dwidth,
self.dheight,
self.dwidth * 3, # row-stride
)
self.preview_image_gtk = gtk.gtk_image_new_from_pixbuf(pix)
def PIL2Ipl(input):
"""Converts a PIL image to the OpenCV/IPL CvMat data format.
Supported input image formats are:
RGB
L
F
"""
if not (isinstance(input, PIL.Image.Image)):
raise TypeError, 'Must be called with PIL.Image.Image!'
# mode dictionary:
# (pil_mode : (ipl_depth, ipl_channels)
mode_list = {
"RGB" : (cv.IPL_DEPTH_8U, 3),
"L" : (cv.IPL_DEPTH_8U, 1),
"F" : (cv.IPL_DEPTH_32F, 1)
}
if not mode_list.has_key(input.mode):
raise ValueError, 'unknown or unsupported input mode'
result = cv.cvCreateImage(
cv.cvSize(input.size[0], input.size[1]), # size
mode_list[input.mode][0], # depth
mode_list[input.mode][1] # channels
)
# set imageData
result.imageData = input.tostring()
return result
def run(self): if self.capture: webcam_frame = cv.QueryFrame( self.capture ) else: print "Capture failed!" return if self.inverted_video.get_active(): cv.ConvertImage(webcam_frame, webcam_frame, cv._CVTIMG_FLIP) cv.ConvertImage(webcam_frame, self.display_frame, cv._CVTIMG_SWAP_RB) if False: # PROCESS WEBCAM FRAME HERE... inputImage = cv.cvCreateImage(cv.cvGetSize(webcam_frame), cv.IPL_DEPTH_8U, 1) cv.cvCvtColor(webcam_frame, inputImage, cv.CV_RGB2GRAY); cv.cvThreshold(inputImage, inputImage, 128, 255, cv.CV_THRESH_BINARY) mysize = cv.cvGetSize(webcam_frame) height = mysize.height width = mysize.width # Find horizontal first-moment: if False: mysum = 0 for i in range(height): mysum += sum(inputImage[i,:]) print "Sum:", mysum cv.cvMerge( inputImage, inputImage, inputImage, None, self.display_frame ) incoming_pixbuf = gtk.gdk.pixbuf_new_from_data( self.display_frame.imageData, gtk.gdk.COLORSPACE_RGB, False, 8, self.display_frame.width, self.display_frame.height, self.display_frame.widthStep) incoming_pixbuf.copy_area(0, 0, self.display_frame.width, self.display_frame.height, self.webcam_pixbuf, 0, 0) self.video_image.queue_draw() return self.video_enabled_button.get_active()
def NumPy2Ipl(input):
"""Converts a numpy array to the OpenCV/IPL CvMat data format.
Supported input array layouts:
2 dimensions of numpy.uint8
3 dimensions of numpy.uint8
2 dimensions of numpy.float32
2 dimensions of numpy.float64
"""
if not isinstance(input, numpy.ndarray):
raise TypeError, 'Must be called with numpy.ndarray!'
# Check the number of dimensions of the input array
ndim = input.ndim
if not ndim in (2, 3):
raise ValueError, 'Only 2D-arrays and 3D-arrays are supported!'
# Get the number of channels
if ndim == 2:
channels = 1
else:
channels = input.shape[2]
# Get the image depth
if input.dtype == numpy.uint8:
depth = cv.IPL_DEPTH_8U
elif input.dtype == numpy.float32:
depth = cv.IPL_DEPTH_32F
elif input.dtype == numpy.float64:
depth = cv.IPL_DEPTH_64F
# supported modes list: [(channels, dtype), ...]
modes_list = [(1, numpy.uint8), (3, numpy.uint8), (1, numpy.float32),
(1, numpy.float64)]
# Check if the input array layout is supported
if not (channels, input.dtype) in modes_list:
raise ValueError, 'Unknown or unsupported input mode'
result = cv.cvCreateImage(
cv.cvSize(input.shape[1], input.shape[0]), # size
depth, # depth
channels # channels
)
# set imageData
result.imageData = input.tostring()
return result
def NumPy2Ipl(input):
"""Converts a numpy array to the OpenCV/IPL CvMat data format.
Supported input array layouts:
2 dimensions of numpy.uint8
3 dimensions of numpy.uint8
2 dimensions of numpy.float32
2 dimensions of numpy.float64
"""
if not isinstance(input, numpy.ndarray):
raise TypeError, 'Must be called with numpy.ndarray!'
# Check the number of dimensions of the input array
ndim = input.ndim
if not ndim in (2, 3):
raise ValueError, 'Only 2D-arrays and 3D-arrays are supported!'
# Get the number of channels
if ndim == 2:
channels = 1
else:
channels = input.shape[2]
# Get the image depth
if input.dtype == numpy.uint8:
depth = cv.IPL_DEPTH_8U
elif input.dtype == numpy.float32:
depth = cv.IPL_DEPTH_32F
elif input.dtype == numpy.float64:
depth = cv.IPL_DEPTH_64F
# supported modes list: [(channels, dtype), ...]
modes_list = [(1, numpy.uint8), (3, numpy.uint8), (1, numpy.float32), (1, numpy.float64)]
# Check if the input array layout is supported
if not (channels, input.dtype) in modes_list:
raise ValueError, 'Unknown or unsupported input mode'
result = cv.cvCreateImage(
cv.cvSize(input.shape[1], input.shape[0]), # size
depth, # depth
channels # channels
)
# set imageData
result.imageData = input.tostring()
return result
def Ipl2NumPy(input):
"""Converts an OpenCV image to a numpy array.
Supported input image formats are
IPL_DEPTH_8U x 1 channel
IPL_DEPTH_8U x 3 channels
IPL_DEPTH_32F x 1 channel
IPL_DEPTH_32F x 2 channels
IPL_DEPTH_32S x 1 channel
IPL_DEPTH_64F x 1 channel
IPL_DEPTH_64F x 2 channels
"""
import ipdb
ipdb.set_trace()
if not isinstance(input, cv.CvMat):
raise TypeError, "must be called with a cv.CvMat!"
# data type dictionary:
# (channels, depth) : numpy dtype
ipl2dtype = {
(1, cv.IPL_DEPTH_8U): numpy.uint8,
(3, cv.IPL_DEPTH_8U): numpy.uint8,
(1, cv.IPL_DEPTH_32F): numpy.float32,
(2, cv.IPL_DEPTH_32F): numpy.float32,
(1, cv.IPL_DEPTH_32S): numpy.int32,
(1, cv.IPL_DEPTH_64F): numpy.float64,
(2, cv.IPL_DEPTH_64F): numpy.float64,
}
key = (input.nChannels, input.depth)
if not ipl2dtype.has_key(key):
raise ValueError, "unknown or unsupported input mode"
# Get the numpy array and reshape it correctly
# ATTENTION: flipped dimensions width/height on 2007-11-15
if input.nChannels == 1:
array_1d = numpy.fromstring(input.imageData, dtype=ipl2dtype[key])
return numpy.reshape(array_1d, (input.height, input.width))
elif input.nChannels == 2:
array_1d = numpy.fromstring(input.imageData, dtype=ipl2dtype[key])
return numpy.reshape(array_1d, (input.height, input.width, 2))
elif input.nChannels == 3:
# Change the order of channels from BGR to RGB
rgb = cv.cvCreateImage(cv.cvSize(input.width, input.height), input.depth, 3)
cv.cvCvtColor(input, rgb, cv.CV_BGR2RGB)
array_1d = numpy.fromstring(rgb.imageData, dtype=ipl2dtype[key])
return numpy.reshape(array_1d, (input.height, input.width, 3))
def Ipl2NumPy(input):
"""Converts an OpenCV image to a numpy array.
Supported input image formats are
IPL_DEPTH_8U x 1 channel
IPL_DEPTH_8U x 3 channels
IPL_DEPTH_32F x 1 channel
IPL_DEPTH_32F x 2 channels
IPL_DEPTH_32S x 1 channel
IPL_DEPTH_64F x 1 channel
IPL_DEPTH_64F x 2 channels
"""
import ipdb
ipdb.set_trace()
if not isinstance(input, cv.CvMat):
raise TypeError, 'must be called with a cv.CvMat!'
# data type dictionary:
# (channels, depth) : numpy dtype
ipl2dtype = {
(1, cv.IPL_DEPTH_8U): numpy.uint8,
(3, cv.IPL_DEPTH_8U): numpy.uint8,
(1, cv.IPL_DEPTH_32F): numpy.float32,
(2, cv.IPL_DEPTH_32F): numpy.float32,
(1, cv.IPL_DEPTH_32S): numpy.int32,
(1, cv.IPL_DEPTH_64F): numpy.float64,
(2, cv.IPL_DEPTH_64F): numpy.float64
}
key = (input.nChannels, input.depth)
if not ipl2dtype.has_key(key):
raise ValueError, 'unknown or unsupported input mode'
# Get the numpy array and reshape it correctly
# ATTENTION: flipped dimensions width/height on 2007-11-15
if input.nChannels == 1:
array_1d = numpy.fromstring(input.imageData, dtype=ipl2dtype[key])
return numpy.reshape(array_1d, (input.height, input.width))
elif input.nChannels == 2:
array_1d = numpy.fromstring(input.imageData, dtype=ipl2dtype[key])
return numpy.reshape(array_1d, (input.height, input.width, 2))
elif input.nChannels == 3:
# Change the order of channels from BGR to RGB
rgb = cv.cvCreateImage(cv.cvSize(input.width, input.height),
input.depth, 3)
cv.cvCvtColor(input, rgb, cv.CV_BGR2RGB)
array_1d = numpy.fromstring(rgb.imageData, dtype=ipl2dtype[key])
return numpy.reshape(array_1d, (input.height, input.width, 3))
def test05_Ipl2NumPy(self):
"""Test the adaptors.Ipl2NumPy function."""
a = adaptors.Ipl2NumPy(self.ipl_image)
a_1d = numpy.reshape(a, (a.size, ))
# For 3-channel IPL images the order of channels will be BGR
# but NumPy array order of channels will be RGB so a conversion
# is needed before we can compare both images
if self.ipl_image.nChannels == 3:
rgb = cv.cvCreateImage(cv.cvSize(self.ipl_image.width, self.ipl_image.height), self.ipl_image.depth, 3)
cv.cvCvtColor(self.ipl_image, rgb, cv.CV_BGR2RGB)
self.assert_(a_1d.tostring() == rgb.imageData,
'The returned image has not been properly constructed.')
else:
self.assert_(a_1d.tostring() == self.ipl_image.imageData,
'The returned image has not been properly constructed.')
def Ipl2NumPy(input):
"""Converts an OpenCV/IPL image to a numpy array.
Supported input image formats are
IPL_DEPTH_8U x 1 channel
IPL_DEPTH_8U x 3 channels
IPL_DEPTH_32F x 1 channel
IPL_DEPTH_64F x 1 channel
"""
if not isinstance(input, cv.CvMat):
raise TypeError, 'must be called with a cv.CvMat!'
# assert that the channels are interleaved
if input.dataOrder != 0:
raise ValueError, 'dataOrder must be 0 (interleaved)!'
# data type dictionary:
# (channels, depth) : numpy dtype
ipl2dtype = {
(1, cv.IPL_DEPTH_8U) : numpy.uint8,
(3, cv.IPL_DEPTH_8U) : numpy.uint8,
(1, cv.IPL_DEPTH_32F) : numpy.float32,
(1, cv.IPL_DEPTH_64F) : numpy.float64
}
key = (input.nChannels, input.depth)
if not ipl2dtype.has_key(key):
raise ValueError, 'unknown or unsupported input mode'
# Get the numpy array and reshape it correctly
if input.nChannels == 1:
array_1d = numpy.fromstring(input.imageData, dtype=ipl2dtype[key])
return numpy.reshape(array_1d, (input.height, input.width))
elif input.nChannels == 3:
# Change the order of channels from BGR to RGB
rgb = cv.cvCreateImage(cv.cvSize(input.width, input.height), input.depth, 3)
cv.cvCvtColor(input, rgb, cv.CV_BGR2RGB)
array_1d = numpy.fromstring(rgb.imageData, dtype=ipl2dtype[key])
return numpy.reshape(array_1d, (input.height, input.width, 3))
def logPolar(im,center=None,radius=None,M=None,size=(64,128)):
'''
Produce a log polar transform of the image. See OpenCV for details.
The scale space is calculated based on radius or M. If both are given
M takes priority.
'''
#M=1.0
w,h = im.size
if radius == None:
radius = 0.5*min(w,h)
if M == None:
#rho=M*log(sqrt(x2+y2))
#size[0] = M*log(r)
M = size[0]/np.log(radius)
if center == None:
center = pv.Point(0.5*w,0.5*h)
src = im.asOpenCV()
dst = cv.cvCreateImage( cv.cvSize(size[0],size[1]), 8, 3 );
cv.cvLogPolar( src, dst, center.asOpenCV(), M, cv.CV_INTER_LINEAR+cv.CV_WARP_FILL_OUTLIERS )
return pv.Image(dst)
def initialize_video(self):
webcam_frame = cv.QueryFrame( self.capture )
if not webcam_frame:
print "Frame acquisition failed."
return False
self.webcam_pixbuf = gtk.gdk.pixbuf_new_from_data(
webcam_frame.imageData,
gtk.gdk.COLORSPACE_RGB,
False,
8,
webcam_frame.width,
webcam_frame.height,
webcam_frame.widthStep)
self.video_image.set_from_pixbuf(self.webcam_pixbuf)
self.display_frame = cv.cvCreateImage( cv.cvSize(webcam_frame.width, webcam_frame.height), cv.IPL_DEPTH_8U, 3)
return True
def __init__(self):
self.active = False
self.contours_image = cv.cvCreateImage((640, 480), 8, 3)
self.dwidth = 320
self.dheight = 240
self.preview_image = cv.CreateImage((self.dwidth, self.dheight), cv.IPL_DEPTH_8U, 3)
n = self.dwidth * self.dheight * 3
raw = (ctypes.c_ubyte * n)()
for x in range(n):
raw[x] = 64
ptr = ctypes.pointer(raw)
pix = gtk.gdk_pixbuf_new_from_data(
ptr,
gtk.GDK_COLORSPACE_RGB,
False, # ALPHA
8, # bits per sample
self.dwidth,
self.dheight,
self.dwidth * 3, # row-stride
)
self.preview_image_gtk = gtk.gtk_image_new_from_pixbuf(pix)
def __init__(self):
self.active = False
self.contours_image = cv.cvCreateImage((640, 480), 8, 3)
# self.storage_poly = cv.CreateMemStorage(0)
gui.NamedWindow("contours", 1)
def __init__(self):
self.active = False
self.contours_image = cv.cvCreateImage((640, 480), 8, 3)
#self.storage_poly = cv.CreateMemStorage(0)
gui.NamedWindow('contours', 1)
def separation(self, debug=False):
rel_slice_point = self.rel_original_point # NOQA
rel_remained_point = self.rel_original_point
slice_line = self.slice_line
src = self.src
original_size = self.original_size
# vector<PixPoint>* pixels = &slice_line.pixels;
pixels = slice_line.pixels
# // x軸方向に分割した場合
if slice_line.is_horizontal:
slice_size: CvSize = CvSize()
remained_size: CvSize = CvSize()
if slice_line.theta == 90:
slice_size = CvSize(src.width, slice_line.position)
remained_size = CvSize(src.width,
src.height - slice_line.position)
else:
if pixels.at(pixels.size() - 1).y < slice_line.position:
slice_size = CvSize(
pixels.at(pixels.size() - 1).x + 1,
slice_line.position + 1)
else:
slice_size = CvSize(
pixels.at(pixels.size() - 1).x + 1,
pixels.at(pixels.size() - 1).y + 1)
if pixels.at(pixels.size() - 1).y < slice_line.position:
remained_size = CvSize(
src.width + 1,
src.height - pixels.at(pixels.size() - 1).y + 1)
else:
remained_size = CvSize(
src.width + 1, src.height - slice_line.position + 1)
slice_src = cvCreateImage(slice_size, src.depth, src.nChannels)
cvSet(slice_src, cvScalarAll(255), 0)
remained_src = cvCreateImage(remained_size, src.depth,
src.nChannels)
cvSet(remained_src, cvScalarAll(255), 0)
rel_remained_point.y += slice_line.position
h: int = 0
w: int = 0
c: int = 0
if (src.width == pixels.size()) and (slice_line.theta == 90):
for w in range(src.width):
for h in range(src.height):
if h < slice_line.position:
for c in range(src.nChannels):
slice_src.imageData[slice_src.widthStep * h +
w * slice_src.nChannels +
c] = src.imageData[
src.widthStep * h +
w * src.nChannels + c]
else:
for c in range(src.nChannels):
remained_src.imageData[
remained_src.widthStep *
(h - slice_line.position) +
w * remained_src.nChannels +
c] = src.imageData[src.widthStep * h +
w * src.nChannels + c]
elif (src.width == pixels.size()) and (slice_line.theta > 90):
for w in range(src.width):
for h in range(src.height):
if h < pixels.at(w).y:
for c in range(src.nChannels):
slice_src.imageData[slice_src.widthStep * h +
w * slice_src.nChannels +
c] = src.imageData[
src.widthStep * h +
w * src.nChannels + c]
else:
for c in range(src.nChannels):
remained_src.imageData[
remained_src.widthStep *
(h - pixels.at(pixels.size() - 1).y) +
w * slice_src.nChannels +
c] = src.imageData[src.widthStep * h +
w * src.nChannels + c]
elif (src.width == pixels.size()) and (slice_line.theta <= 90):
for w in range(src.width):
for h in range(src.height):
if h < pixels.at(w).y:
for c in range(src.nChannels):
slice_src.imageData[slice_src.widthStep * h +
w * slice_src.nChannels +
c] = src.imageData[
src.widthStep * h +
w * src.nChannels + c]
else:
for c in range(src.nChannels):
remained_src.imageData[
remained_src.widthStep *
(h - slice_line.position) +
w * slice_src.nChannels +
c] = src.imageData[src.widthStep * h +
w * src.nChannels + c]
elif (src.width > pixels.size()) and (slice_line.theta > 90):
for w in range(pixels.size()):
for h in range(src.height):
if h < pixels.at(w).y:
for c in range(src.nChannels):
slice_src.imageData[slice_src.widthStep * h +
w * slice_src.nChannels +
c] = src.imageData[
src.widthStep * h +
w * src.nChannels + c]
else:
for c in range(src.nChannels):
remained_src.imageData[
remained_src.widthStep * h +
w * remained_src.nChannels +
c] = src.imageData[src.widthStep * h +
w * src.nChannels + c]
for w in range(int(pixels.size()), src.width):
for h in range(src.height):
for c in range(src.nChannels):
remained_src.imageData[remained_src.widthStep * h +
w * remained_src.nChannels +
c] = src.imageData[
src.widthStep * h +
w * src.nChannels + c]
else:
for w in range(pixels.size()):
for h in range(src.height):
if h < pixels.at(w).y:
for c in range(src.nChannels):
slice_src.imageData[slice_src.widthStep * h +
w * slice_src.nChannels +
c] = src.imageData[
src.widthStep * h +
w * src.nChannels + c]
else:
for c in range(src.nChannels):
remained_src.imageData[
remained_src.widthStep *
(h - slice_line.position) +
w * remained_src.nChannels +
c] = src.imageData[src.widthStep * h +
w * src.nChannels + c]
for w in range(int(pixels.size(), src.width)):
for h in range(src.height):
for c in range(src.nChannels):
slice_src.imageData[slice_src.widthStep * h +
w * slice_src.nChannels +
c] = src.imageData[
src.widthStep * h +
w * src.nChannels + c]
# // y軸方向に分割した場合
else:
slice_size: CvSize = CvSize()
remained_size: CvSize = CvSize()
if slice_line.theta == 90:
slice_size = CvSize(slice_line.position, src.height)
remained_size = CvSize(src.width - slice_line.position,
src.height)
else:
if pixels.at(pixels.size() - 1).x < slice_line.position:
slice_size = CvSize(slice_line.position + 1,
pixels.at(pixels.size() - 1).y + 1)
else:
slice_size = CvSize(
pixels.at(pixels.size() - 1).x + 1,
src.height) # pixels.at(pixels.size() - 1).y+1)
if pixels.at(pixels.size() - 1).x < slice_line.position:
remained_size = CvSize(
src.width - pixels.at(pixels.size() - 1).x + 1,
src.height)
else:
remained_size = CvSize(src.width - slice_line.position,
pixels.at(pixels.size() - 1).y + 1)
slice_src = cvCreateImage(slice_size, src.depth, src.nChannels)
cvSet(slice_src, cvScalarAll(255), 0)
remained_src = cvCreateImage(remained_size, src.depth,
src.nChannels)
cvSet(remained_src, cvScalarAll(255), 0)
rel_remained_point.x += slice_line.position
h: int = 0
w: int = 0
c: int = 0
if (src.height == pixels.size()) and (slice_line.theta == 90):
for h in range(src.height):
for w in range(src.width):
if w < slice_line.position:
for c in range(src.nChannels):
slice_src.imageData[slice_src.widthStep * h +
w * slice_src.nChannels +
c] = src.imageData[
src.widthStep * h +
w * src.nChannels + c]
else:
for c in range(src.nChannels):
remained_src.imageData[
remained_src.widthStep * h +
(w - slice_line.position) *
remained_src.nChannels +
c] = src.imageData[src.widthStep * h +
w * src.nChannels + c]
elif (src.height == pixels.size()) and (slice_line.theta > 90):
for h in range(src.height):
for w in range(src.width):
if w < pixels.at(h).x:
for c in range(src.nChannels):
slice_src.imageData[slice_src.widthStep * h +
w * slice_src.nChannels +
c] = src.imageData[
src.widthStep * h +
w * src.nChannels + c]
else:
for c in range(src.nChannels):
remained_src.imageData[
remained_src.widthStep * h +
(w - pixels.at(pixels.size() - 1).x) *
slice_src.nChannels +
c] = src.imageData[src.widthStep * h +
w * src.nChannels + c]
elif (src.height == pixels.size()) and (slice_line.theta < 90):
for h in range(src.height):
for w in range(src.width):
if w < pixels.at(h).x:
for c in range(src.nChannels):
slice_src.imageData[slice_src.widthStep * h +
w * slice_src.nChannels +
c] = src.imageData[
src.widthStep * h +
w * src.nChannels + c]
else:
for c in range(src.nChannels):
remained_src.imageData[
remained_src.widthStep * h +
(w - slice_line.position) *
slice_src.nChannels +
c] = src.imageData[src.widthStep * h +
w * src.nChannels + c]
elif (src.height > pixels.size()) and (slice_line.theta > 90):
for h in range(pixels.size()):
for w in range(src.width):
if w < pixels.at(h).x:
for c in range(src.nChannels):
slice_src.imageData[slice_src.widthStep * h +
w * slice_src.nChannels +
c] = src.imageData[
src.widthStep * h +
w * src.nChannels + c]
else:
for c in range(src.nChannels):
remained_src.imageData[
remained_src.widthStep * h +
w * remained_src.nChannels +
c] = src.imageData[src.widthStep * h +
w * src.nChannels + c]
for h in range(pixels.size()):
for w in range(src.width):
for c in range(src.nChannels):
remained_src.imageData[remained_src.widthStep * h +
w * remained_src.nChannels +
c] = src.imageData[
src.widthStep * h +
w * src.nChannels + c]
else:
for h in range(pixels.size()):
for w in range(src.width):
if w < pixels.at(h).x:
for c in range(src.nChannels):
slice_src.imageData[slice_src.widthStep * h +
w * slice_src.nChannels +
c] = src.imageData[
src.widthStep * h +
w * src.nChannels + c]
else:
for c in range(src.nChannels):
remained_src.imageData[
remained_src.widthStep * h +
(w - slice_line.position) *
remained_src.nChannels +
c] = src.imageData[src.widthStep * h +
w * src.nChannels + c]
for h in range(int(pixels.size()), src.height):
for w in range(src.width):
for c in range(src.nChannels):
remained_src.imageData[remained_src.widthStep * h +
w * remained_src.nChannels +
c] = src.imageData[
src.widthStep * h +
w * src.nChannels + c]
if debug:
cvDestroyWindow("[ separation ] slice_src")
cvShowImage("[ separation ] slice_src", slice_src)
cv.waitKey(0)
cvDestroyWindow("[ separation ] remained_src")
cvShowImage("[ separation ] remained_src", remained_src)
cv.waitKey(0)
# // 保存しないで良い余白等はfalseを返す
if self.is_blank(slice_src):
return Response.DROP_SLICE_SRC
if self.is_blank(remained_src):
return Response.DROP_REMAINED_SRC
threshold: float = 0.02
if slice_src.width * slice_src.height < original_size * threshold:
return Response.DROP_SLICE_SRC
if remained_src.width * remained_src.height < original_size * threshold:
return Response.DROP_REMAINED_SRC
return Response.OK