def translate_single_stack_using_imglib2(imp, dx, dy, dz):
# wrap into a float imglib2 and translate
# conversion into float is necessary due to "overflow of n-linear interpolation due to accuracy limits of unsigned bytes"
# see: https://github.com/fiji/fiji/issues/136#issuecomment-173831951
img = ImagePlusImgs.from(imp.duplicate())
extended = Views.extendBorder(img)
converted = Converters.convert(extended, RealFloatSamplerConverter())
interpolant = Views.interpolate(converted, NLinearInterpolatorFactory())
# translate
if imp.getNDimensions()==3:
transformed = RealViews.affine(interpolant, Translation3D(dx, dy, dz))
elif imp.getNDimensions()==2:
transformed = RealViews.affine(interpolant, Translation2D(dx, dy))
else:
IJ.log("Can only work on 2D or 3D stacks")
return None
cropped = Views.interval(transformed, img)
# wrap back into bit depth of input image and return
bd = imp.getBitDepth()
if bd==8:
return(ImageJFunctions.wrapUnsignedByte(cropped,"imglib2"))
elif bd == 16:
return(ImageJFunctions.wrapUnsignedShort(cropped,"imglib2"))
elif bd == 32:
return(ImageJFunctions.wrapFloat(cropped,"imglib2"))
else:
return None
def test(iraf):
# Test dimensions: should be the same as the one input image
print "Dimensions:", Intervals.dimensionsAsLongArray(iraf)
# Test Cursor
c = iraf.cursor()
pos = zeros(2, 'l')
while c.hasNext():
c.fwd()
c.localize(pos)
print "Cursor:", pos, "::", c.get()
# Test RandomAccess
ra = iraf.randomAccess()
c = iraf.cursor()
while c.hasNext():
c.fwd()
ra.setPosition(c)
c.localize(pos)
print "RandomAccess:", pos, "::", ra.get()
# Test source img: should be untouched
c = img.cursor()
while c.hasNext():
print "source:", c.next()
# Test interval view: the middle 2x2 square
v = Views.interval(iraf, [1, 1], [2, 2])
IL.wrap(v, "+2 view").show()
def translate_single_stack_using_imglib2(imp, dx, dy, dz):
# wrap into a float imglib2 and translate
# conversion into float is necessary due to "overflow of n-linear interpolation due to accuracy limits of unsigned bytes"
# see: https://github.com/fiji/fiji/issues/136#issuecomment-173831951
img = ImagePlusImgs.from(imp.duplicate())
extended = Views.extendZero(img)
converted = Converters.convert(extended, RealFloatSamplerConverter())
interpolant = Views.interpolate(converted, NLinearInterpolatorFactory())
# translate
if imp.getNDimensions()==3:
transformed = RealViews.affine(interpolant, Translation3D(dx, dy, dz))
elif imp.getNDimensions()==2:
transformed = RealViews.affine(interpolant, Translation2D(dx, dy))
else:
IJ.log("Can only work on 2D or 3D stacks")
return None
cropped = Views.interval(transformed, img)
# wrap back into bit depth of input image and return
bd = imp.getBitDepth()
if bd==8:
return(ImageJFunctions.wrapUnsignedByte(cropped,"imglib2"))
elif bd == 16:
return(ImageJFunctions.wrapUnsignedShort(cropped,"imglib2"))
elif bd == 32:
return(ImageJFunctions.wrapFloat(cropped,"imglib2"))
else:
return None
def find_peaks(imp1, imp2, sigmaSmaller, sigmaLarger, minPeakValue): # FIND PEAKS # sigmaSmaller ==> Size of the smaller dots (in pixels) # sigmaLarger ==> Size of the bigger dots (in pixels) # minPeakValue ==> Intensity above which to look for dots # Preparation Neuron channel ip1_1 = IL.wrapReal(imp1) ip1E = Views.extendMirrorSingle(ip1_1) imp1.show() #Preparation Glioma channel ip2_1 = IL.wrapReal(imp2) ip2E = Views.extendMirrorSingle(ip2_1) imp2.show() calibration = [1.0 for i in range(ip1_1.numDimensions())] extremaType = DogDetection.ExtremaType.MINIMA normalizedMinPeakValue = False dog_1 = DogDetection(ip1E, ip1_1, calibration, sigmaSmaller, sigmaLarger, extremaType, minPeakValue, normalizedMinPeakValue) dog_2 = DogDetection(ip2E, ip2_1, calibration, sigmaSmaller, sigmaLarger, extremaType, minPeakValue, normalizedMinPeakValue) peaks_1 = dog_1.getPeaks() peaks_2 = dog_2.getPeaks() return ip1_1, ip2_1, peaks_1, peaks_2
def run():
# Ask for a folder containing all the time points, one per folder
#dc = DirectoryChooser("Choose folder")
#folder = dc.getDirectory()
#folder = '/run/user/52828/gvfs/smb-share:server=keller-s7,share=microscopy1/SV3/RC_17-10-31/GCaMP6s_2_20171031_145624.corrected/SPM00'
#folder = "/home/albert/shares/zlaticlab/Nadine/Raghav/2017-05-10/GCaMP6s_1_20170510_115003.corrected/dff_on_fused/from_Raghav/MVD_Results/"
folder = "/home/albert/shares/zlaticlab/Nadine/Raghav/2017-05-10/GCaMP6s_1_20170510_115003.corrected/tests/dff_on_4view_fused/from_Raghav/MVD_Results/"
print folder
if not folder:
return
# Find the list of directories in that folder, and pick
# one single file inside each, ending in:
ending = "CM00_CHN00.klb"
#DEBUGGING
num_timepoints = 100
java = Weaver.method(
"""
static public final void maxer(final KLB klb, final ImgPlus target, final String path) throws java.io.IOException {
Cursor c1 = target.cursor();
Cursor c2 = klb.readFull(path).cursor();
while (c1.hasNext()) {
c1.next();
c2.next();
UnsignedShortType s1 = (UnsignedShortType) c1.get();
UnsignedShortType s2 = (UnsignedShortType) c2.get();
s1.set( (short) Math.max( s1.get(), s2.get() ) );
}
}
""", [KLB, ImgPlus, Cursor, UnsignedShortType])
max_img = None
klb = KLB.newInstance()
counter = 0
for root, dirs, files in os.walk(folder):
for filename in files:
if filename.endswith(ending):
counter += 1
path = os.path.join(root, filename)
print counter, path
# Use the first opened stack as the image stack into which to accumulate max values
if max_img is None:
max_img = klb.readFull(path)
else:
java.maxer(klb, max_img, path)
num_timepoints -= 1
if num_timepoints < 0:
break
# DONE
IJF.show(max_img)
def openImage():
print rel_path
if rel_path.endswith(".klb"):
try:
klb = KLB.newInstance()
img = klb.readFull(os.path.join(base_path, rel_path))
IL.wrap(img, rel_path).show()
except:
print sys.exc_info()
else:
print "via IJ.open"
IJ.open(os.path.join(base_path, rel_path))
def openImage():
print rel_path
if rel_path.endswith(".klb"):
if (KLB == None):
print "Cannot open KLB due to missing module"
try:
klb = KLB.newInstance()
img = klb.readFull(os.path.join(base_path, rel_path))
IL.wrap(img, rel_path).show()
except:
print sys.exc_info()
else:
print "via IJ.open"
IJ.open(os.path.join(base_path, rel_path))
def getFFTParamsFromImps(imp1, imp2, r1=None, r2=None):
if r1:
v1 = getViewFromImp(imp1, r1)
else:
v1 = IL.wrapByte(imp1)
if r2:
v2 = getViewFromImp(imp2, r2)
else:
v2 = IL.wrapByte(imp2)
extension = array(v1.numDimensions() * [10], 'i')
extSize = PhaseCorrelation2Util.getExtendedSize(v1, v2, extension)
paddedDimensions = array(extSize.numDimensions() * [0], 'l')
fftSize = array(extSize.numDimensions() * [0], 'l')
return extension, extSize, paddedDimensions, fftSize
def run():
result = LoadParseQueryXML()
result.addButton("Define a new dataset", Listener(result))
if not result.queryXML("XML Explorer", query, False, False, False, False):
print "Cancelled dialog"
return
print "Resume"
data = result.getData()
xml = result.getXMLFileName()
io = result.getIO()
explorer = ViewSetupExplorer(data, xml, io)
explorer.getFrame().toFront()
# A handle into the data
spimdata2 = explorer.getSpimData()
# https://github.com/bigdataviewer/spimdata/blob/master/src/main/java/mpicbg/spim/data/registration/ViewRegistrations.java
# A map of ViewId vs ViewRegistration (which extends ViewId, so likely are the same)
# ViewId: https://github.com/bigdataviewer/spimdata/blob/master/src/main/java/mpicbg/spim/data/sequence/ViewId.java
# ViewRegistration: https://github.com/bigdataviewer/spimdata/blob/master/src/main/java/mpicbg/spim/data/registration/ViewRegistration.java
viewregs = spimdata2.getViewRegistrations().getViewRegistrations()
#for k, v in viewregs.iteritems():
# print "timepointId:", k.getTimePointId(), "viewSetupId:", k.getViewSetupId(), "value: ", v
# Shows that there are 4 views per timepoint: not fused!
# And: each ViewRegistration holds only the transforms of each view of the timepoint, not the 3D pixels.
#
# https://github.com/bigdataviewer/spimdata/blob/master/src/main/java/mpicbg/spim/data/sequence/SequenceDescription.java
seqdescr = spimdata2.getSequenceDescription()
imgloader = seqdescr.getImgLoader()
for view, viewreg in viewregs.iteritems():
# Each entry has its own TimePointId and ViewId
viewID = view.getViewSetupId()
timepointID = view.getTimePointId()
# Instance of: org.janelia.simview.klb.bdv.KlbImgLoader$KlbSetupImgLoader
loader = imgloader.getSetupImgLoader(viewID)
# Dimensions instance
dim = loader.getImageSize(timepointID)
# VoxelDimensions instance
voxelDim = loader.getVoxelSize(timepointID)
# RandomAccessibleInterval instance
rai = loader.getImage(timepointID, 0, [ImgLoaderHints.LOAD_COMPLETELY])
# The transforms
transformList = viewreg.getTransformList()
# TODO: register, the transform is in the viewreg
IJF.show(rai)
print map(dim.dimension, [0, 1, 2]) # [576L, 896L, 65L]
print voxelDim.unit(), voxelDim.numDimensions(), map(
voxelDim.dimension, [0, 1, 2]) # um 3 [1.0, 1.0, 1.0]
break
def create(self, index):
cell_dimensions = [
self.grid.cellDimension(0),
self.grid.cellDimension(1)
]
n_cols = grid.imgDimension(0) / cell_dimensions[0]
x0 = (index % n_cols) * cell_dimensions[0]
y0 = (index / n_cols) * cell_dimensions[1]
index += 1 # 1-based slice indices in ij.ImageStack
if index < 1 or index > self.stack.size():
# Return blank image: a ByteAccess that always returns 255
return Cell(
cell_dimensions, [x0, y0],
type('ConstantValue', (ByteAccess, ), {
'getValue': lambda self, index: 255
})())
else:
# ImageJ stack slice indices are 1-based
img = IL.wrap(ImagePlus("", self.stack.getProcessor(index)))
# Create extended image with the padding color value
imgE = Views.extendValue(img, self.t.copy())
# A view that includes the padding between slices
minC = [-self.cell_padding for d in xrange(img.numDimensions())]
maxC = [
img.dimension(d) - 1 + self.cell_padding
for d in xrange(img.numDimensions())
]
imgP = Views.interval(imgE, minC, maxC)
return Cell(cell_dimensions, [x0, y0],
ProxyByteAccess(imgP, self.grid))
def showAsComposite(images, title="Composite", show=True):
imps = []
# Collect all images as ImagePlus, checking that they have the same XY dimensions.
# (Z doesn't matter)
dimensions = None
for img in images:
if isinstance(img, ImagePlus):
imps.append(img)
else:
imps.append(IL.wrap(img, ""))
if not dimensions:
dimensions = [imps[-1].getWidth(), imps[-1].getHeight()]
else:
if imps[-1].width != dimensions[0] or imps[-1].getHeight(
) != dimensions[1]:
print "asComposite: dimensions mistach."
return
imp = ImagePlus(title, StacksAsChannels([imp.getStack() for imp in imps]))
imp.setDimensions(len(imps), max(imp.getStack().getSize() for imp in imps),
1)
comp = CompositeImage(imp, CompositeImage.COMPOSITE)
if show:
comp.show()
print imp.getNChannels(), imp.getNSlices(), imp.getNFrames(
), "but imps: ", len(imps)
return comp
def __init__(self, imp, cell_padding, padding_color_value, grid):
self.stack = imp.getStack()
self.grid = grid
self.cell_padding = cell_padding
self.t = IL.wrap(imp).randomAccess().get().createVariable()
self.t.setReal(padding_color_value)
self.cache = {}
def combine(op, title, *ops): edges_img = img.factory().imgFactory(FloatType()).create(img) compute(op(*ops)).into(edges_img) imp = IL.wrap(edges_img, title) imp.getProcessor().resetMinAndMax() imp.show() return imp
def getViewFromImp(imp, r=None):
# r is a java.awt.rectangle
im = IL.wrapByte(imp)
if r is None:
r = Rectangle(0, 0, imp.getWidth(), imp.getHeight())
v = Views.zeroMin(
Views.interval(im, [r.x, r.y],
[r.x + r.width - 1, r.y + r.height - 1]))
return v
def main():
img = IJF.wrap(imp)
img_out = smooth_temporal_gradient(ops, img, sigma_xy, sigma_t,
frame_start, frame_end,
normalize_output)
img_out.setCalibration(imp.getCalibration().copy())
comp = CompositeImage(img_out, CompositeImage.COMPOSITE)
comp.show()
def twoStep(index=0):
# The current way:
img = klb.readFull(filepaths[index]) # klb_loader.get(filepaths[index])
imgE = Views.extendZero(img)
imgI = Views.interpolate(imgE, NLinearInterpolatorFactory())
imgT = RealViews.transform(imgI, cmIsotropicTransforms[index])
imgB = Views.zeroMin(Views.interval(imgT, roi[0],
roi[1])) # bounded: crop with ROI
imgBA = ArrayImgs.unsignedShorts(Intervals.dimensionsAsLongArray(imgB))
ImgUtil.copy(ImgView.wrap(imgB, imgBA.factory()), imgBA)
imgP = prepareImgForDeconvolution(
imgBA,
affine3D(fineTransformsPostROICrop[index]).inverse(),
FinalInterval([0, 0, 0], [imgB.dimension(d) - 1 for d in xrange(3)]))
# Copy transformed view into ArrayImg for best performance in deconvolution
imgA = ArrayImgs.floats(Intervals.dimensionsAsLongArray(imgP))
ImgUtil.copy(ImgView.wrap(imgP, imgA.factory()), imgA)
IL.wrap(imgA, "two step").show()
def SpotDetectionGray(gray, data, display, ops, invert):
# get the dimensions
dimensions2D = array([gray.dimension(0), gray.dimension(1)], 'l')
factory = gray.getImg().factory()
# wrap as ImagePlus
imp = ImageJFunctions.wrap(gray, "wrapped")
# create and call background subtractor
bgs = BackgroundSubtracter()
bgs.rollingBallBackground(imp.getProcessor(), 50.0, False, False, True,
True, True)
# wrap the result of background subtraction as Img and display it
iplus = ImagePlus("bgs", imp.getProcessor())
# if (invert==True):
# iplus.getProcessor().invert()
imgBgs = ImageJFunctions.wrapByte(iplus)
display.createDisplay("back_sub", data.create(ImgPlus(imgBgs)))
# convert the background subtracted image to 32 bit
temp = ops.run("createimg", factory, FloatType(), dimensions2D)
imgBgs32 = ImgPlus(temp)
ops.convert(imgBgs32, imgBgs, ConvertPixCopy())
#display.createDisplay("back_sub 32", data.create(ImgPlus(imgBgs32)))
# create the Laplacian of Gaussian filter
kernel = DetectionUtils.createLoGKernel(3.0, 2, array([1.0, 1.0], 'd'))
# apply the log filter and display the result
log = ImgPlus(ops.run("createimg", factory, FloatType(), dimensions2D))
ops.convolve(log, imgBgs32, kernel)
#display.createDisplay("log", data.create(ImgPlus(log)))
# apply the threshold operation
#thresholded=ops.run("threshold", ops.create( dimensions2D, BitType()), log, Triangle())
thresholded = ops.run("triangle", log)
return ImgPlus(thresholded)
def oneStep(index=0):
# Combining transforms into one, via a translation to account of the ROI crop
img = klb.readFull(filepaths[index]) # klb_loader.get(filepaths[index])
t1 = cmIsotropicTransforms[index]
t2 = affine3D(
[1, 0, 0, -roi[0][0], 0, 1, 0, -roi[0][1], 0, 0, 1, -roi[0][2]])
t3 = affine3D(fineTransformsPostROICrop[index]).inverse()
aff = AffineTransform3D()
aff.set(t1)
aff.preConcatenate(t2)
aff.preConcatenate(t3)
# Final interval is now rooted at 0,0,0 given that the transform includes the translation
imgP = prepareImgForDeconvolution(
img, aff,
FinalInterval([0, 0, 0],
[maxC - minC for minC, maxC in izip(roi[0], roi[1])]))
# Copy transformed view into ArrayImg for best performance in deconvolution
imgA = ArrayImgs.floats(Intervals.dimensionsAsLongArray(imgP))
ImgUtil.copy(ImgView.wrap(imgP, imgA.factory()), imgA)
IL.wrap(imgA, "one step index %i" % index).show()
def SpotDetectionGray(gray, data, display, ops, invert):
# get the dimensions
dimensions2D=array( [gray.dimension(0), gray.dimension(1)], 'l')
factory=gray.getImg().factory()
# wrap as ImagePlus
imp=ImageJFunctions.wrap(gray, "wrapped")
# create and call background subtractor
bgs=BackgroundSubtracter()
bgs.rollingBallBackground(imp.getProcessor(), 50.0, False, False, True, True, True)
# wrap the result of background subtraction as Img and display it
iplus=ImagePlus("bgs", imp.getProcessor())
# if (invert==True):
# iplus.getProcessor().invert()
imgBgs=ImageJFunctions.wrapByte(iplus)
display.createDisplay("back_sub", data.create(ImgPlus(imgBgs)))
# convert the background subtracted image to 32 bit
temp=ops.run( "createimg", factory, FloatType(), dimensions2D )
imgBgs32=ImgPlus( temp )
ops.convert(imgBgs32, imgBgs, ConvertPixCopy() )
#display.createDisplay("back_sub 32", data.create(ImgPlus(imgBgs32)))
# create the Laplacian of Gaussian filter
kernel = DetectionUtils.createLoGKernel( 3.0, 2, array([1.0, 1.0], 'd' ) )
# apply the log filter and display the result
log=ImgPlus( ops.run("createimg", factory, FloatType(), dimensions2D) )
ops.convolve(log, imgBgs32, kernel)
#display.createDisplay("log", data.create(ImgPlus(log)))
# apply the threshold operation
#thresholded=ops.run("threshold", ops.create( dimensions2D, BitType()), log, Triangle())
thresholded = ops.run("triangle", log)
return ImgPlus(thresholded)
def writeZip(img, path, title=""):
if isinstance(img, RandomAccessibleInterval):
imp = IL.wrap(img, title)
elif isinstance(img, ImagePlus):
imp = img
if title:
imp.setTitle(title)
else:
syncPrint("Cannot writeZip to %s:\n Unsupported image type %s" % (path, str(type(img))))
return None
#
FileSaver(imp).saveAsZip(path)
return imp
def translate_using_imglib2(imp, dx, dy, dz):
print "imp channels",imp.getNChannels()
# todo:
# if multiple channels use Duplicator to translate each channel individually
## wrap
# http://javadoc.imagej.net/ImgLib2/net/imglib2/img/imageplus/ImagePlusImg.html
img = ImagePlusImgs.from(imp.duplicate())
print "dimensions:",img.numDimensions()
print img.getChannels()
## prepare image
print "img",img
ddd
extended = Views.extendBorder(img)
#print "extended",extended
#print "extended",extended.dimension(1)
dims = zeros(4, 'l')
img.dimensions(dims)
print "dims",dims
converted = Converters.convert(extended, RealFloatSamplerConverter())
composite = Views.collapseReal(converted, imp.getNChannels())
print "composite",composite
interpolant = Views.interpolate(composite, NLinearInterpolatorFactory())
#print "interpolant",interpolant
transformed = RealViews.affine(interpolant, Translation3D(dx, dy, dz))
print "transformed", transformed
cropped = Views.interval(transformed, img)
print "cropped.numDimensions()", cropped.numDimensions()
print "cropped",cropped
## wrap back and return
bd = imp.getBitDepth()
# maybe simply wrap works?
if bd==8:
return(ImageJFunctions.wrapUnsignedByte(cropped,"imglib2"))
elif bd == 16:
return(ImageJFunctions.wrapUnsignedShort(cropped,"imglib2"))
elif bd == 32:
return(ImageJFunctions.wrapFloat(cropped,"imglib2"))
else:
return None
def showStack(img, title="", proper=True, n_channels=1):
# IL.wrap fails: shows slices as channels, and channels as frames
if not proper:
imp = IL.wrap(img, title)
imp.show()
return imp
# Proper sorting of slices, channels and frames
imp = wrap(img, title=title, n_channels=n_channels)
comp = CompositeImage(
imp,
CompositeImage.GRAYSCALE if 1 == n_channels else CompositeImage.COLOR)
comp.show()
return comp
def getMIP(imp): if isinstance(imp,ImagePlus): im = ImageJFunctions.wrap(imp) else: im = imp projected = ops.create().img([ im.dimension(d) for d in [0,1] ]) # Create the op and run it proj_op = ops.op(getattr(Ops.Stats, "Max"), im) ops.transform().project(projected, im, proj_op, 2) return projected
def maskFromOverlay(imp):
''' TODO Documentation '''
overlay = imp.getOverlay();
img = ImageJFunctions.wrap(imp);
emptyImg = ops.create().img(img);
if overlay is None:
return emptyImg;
emptyImp = ImageJFunctions.wrap(emptyImg, "mask");
for roi in overlay.toArray():
imp.setRoi(roi);
IJ.run(imp, "Create Mask", "");
manualMaskImp = IJ.getImage();
ic = ImageCalculator();
ic.run("OR", emptyImp, manualMaskImp);
manualMask = ImageJFunctions.wrap(manualMaskImp);
manualMaskImp.close();
#imp.setRoi(None);
return manualMask;
def viewTransformed(image,
transformation,
title=None,
interval=None,
show=True):
if isinstance(image, ImagePlus):
img = IL.wrap(
image
) # ImagePlus to ImgLib2 RandomAccessibleInterva & IterableInterval aka Img
elif isinstance(image, RandomAccessibleInterval):
img = image
else:
return None
# Make the image be defined anywhere by infinitely padding with zeros.
imgInfinite = Views.extendZero(img)
# Make the image be defined at arbitrarily precise subpixel coordinates
# by using n-dimensional linear interpolation
imgInterpolated = Views.interpolate(imgInfinite,
NLinearInterpolatorFactory())
# Make the image be seen as a transformed view of the source image
imgTransformed = RealViews.transform(imgInterpolated, transformation)
# Define an interval within which we want the transformed image to be defined
# (such as that of the source img itself; an img in ImgLib2 also happens to be an Interval
# and can therefore be used as an interval, which is convenient here because we
# expect the original field of view--the interval--to be where image data can still be found)
interval = interval if interval else img # every Img is also an Interval because each Img is bounded
# Make the image finite by defining it as the content within the interval
imgBounded = Views.interval(imgTransformed, interval) # same as original
# Optionally show the transformed, bounded image in an ImageJ VirtualStack
# (Note that anytime one of the VirtualStack's ImageProcessor will have to
# update its pixel data, it will incur in executing the transformation again;
# no pixel data is cached or copied anywhere other than for display purposes)
if show:
title = title if title else imp.getTitle()
imp = IL.wrap(imgBounded, title) # as an ImagePlus
imp.show() # in an ImageJ ImageWindow
return imgBounded
def main():
files = []
for filt in img_extensions.split(";"):
if len(filt.strip()) > 0:
files += glob.glob(os.path.join(str(input_dir), filt.strip()))
else:
files += glob.glob(os.path.join(str(input_dir), "*.*"))
break
if len(files) == 0:
IJ.showMessage("No files found in '{}'\nfor extensions '{}'".format(
str(input_dir), img_extensions))
else:
for fn in files:
try:
imp = BF.openImagePlus(fn)[0]
except:
IJ.showMessage(
"Could not open file '{}' (skipping).\nUse extension filter to filter non-image files..."
.format(str(fn)))
continue
img = IJF.wrap(imp)
cali = imp.getCalibration().copy()
if pixel_width > 0:
cali.pixelWidth = pixel_width
cali.pixelHeight = pixel_width
cali.setUnit("micron")
if frame_interval > 0:
cali.frameInterval = frame_interval
cali.setTimeUnit("sec.")
imp_out = smooth_temporal_gradient(ops, img, sigma_xy, sigma_t,
frame_start, frame_end,
normalize_output)
imp_out.setCalibration(cali)
channels = ChannelSplitter.split(imp_out)
fn_basename = os.path.splitext(fn)[0]
IJ.save(channels[0], "{}_shrinkage.tiff".format(fn_basename))
IJ.save(channels[1], "{}_growth.tiff".format(fn_basename))
print("{} processed".format(fn_basename))
IJ.showMessage(
"Growth/shrinkage extraction of {} inputs finsihed.".format(
len(files)))
def wrap(img, title="", n_channels=1):
""" Like ImageJFunctions.wrap but, when n_channels=1 (the default),
then a new dimension of size 1 is inserted at position 2 to prevent the Z axis
from showing as the channels axis.
To enable ImageJFunctions.wrap default behavior, set n_channels to a value other than 1. """
if 1 == n_channels:
# Append a dimension of size 1 at the end
# and permute it iteratively so that it becomes the channels dimension (d=2)
img = Views.addDimension(img, 1, 1)
d = img.numDimensions(
) - 1 # starts with the last: the new one of size 1
while d > 2:
img = Views.permute(img, d, d - 1)
d -= 1
#
return IL.wrap(img, title)
from org.python.core import codecs
codecs.setDefaultEncoding('utf-8')
import os
from java.io import File
from ij import ImageJ, ImagePlus
from ij.io import Opener
from net.imglib2.img import Img, ImgFactory
from net.imglib2.img.cell import CellImgFactory
from net.imglib2.img.display.imagej import ImageJFunctions
from net.imglib2.type.numeric.real import FloatType
gitDir = os.environ['GIT_HOME']
relImg = "/OSImageAnalysis/images"
# strImg = gitDir + relImg + "/bridge.gif"
strImg = gitDir + relImg + "/latex.tif"
fi = File(strImg)
imp = Opener().openImage( fi.getAbsolutePath() )
imp.show()
imgFactory = CellImgFactory(5 )
img1 = imgFactory.create( (20, 30, 40), FloatType() )
ImageJFunctions.show( img1 )
img2 = imgFactory.create( img1, img1.firstElement() )
ImageJFunctions.show( img2 )
# @DisplayService display
# @OpService ops
# @net.imagej.Dataset inputData
from net.imglib2.meta import ImgPlus
from net.imglib2.img.display.imagej import ImageJFunctions
from jarray import array
from ij import IJ
# create a log kernel
logKernel=ops.logKernel(inputData.numDimensions(), 1.0);
# convolve with log kernel
logFiltered=ops.convolve(inputData, logKernel);
# display log filter result
display.createDisplay("log", ImgPlus(logFiltered));
# otsu threshold and display
thresholded = ops.run("threshold.otsu",logFiltered)
display.createDisplay("thresholded", ImgPlus(thresholded));
# convert to imagej1 imageplus so we can run analyze particles
impThresholded=ImageJFunctions.wrap(thresholded, "wrapped")
# convert to mask and analyze particles
IJ.run(impThresholded, "Convert to Mask", "")
IJ.run(impThresholded, "Analyze Particles...", "display add");
IJ.run("Close");
from mpicbg.models import Point, PointMatch, InterpolatedAffineModel3D, AffineModel3D, RigidModel3D, NotEnoughDataPointsException
from collections import defaultdict
from operator import sub
from itertools import imap, izip, product, combinations
from jarray import array, zeros
import os, csv
from java.util.concurrent import Executors, Callable
from java.util import ArrayList
from ij import IJ
from net.imglib2.algorithm.math import ImgMath, ImgSource
from net.imglib2.img.array import ArrayImgs
from net.imglib2.realtransform import RealViews, AffineTransform3D
from net.imglib2.interpolation.randomaccess import NLinearInterpolatorFactory
from net.imglib2.util import Intervals
img = IL.wrap(IJ.getImage())
# Cut out a cube
img1 = Views.zeroMin(
Views.interval(img, [39, 49, 0], [39 + 378 - 1, 49 + 378 - 1, 378 - 1]))
print[img1.dimension(d) for d in xrange(img1.numDimensions())]
# Rotate the cube on the Y axis to the left
img2 = Views.rotate(img1, 2, 0)
# copy into ArrayImg
img1a = ArrayImgs.unsignedShorts([378, 378, 378])
ImgMath.compute(ImgSource(img1)).into(img1a)
img2a = ArrayImgs.unsignedShorts([378, 378, 378])
ImgMath.compute(ImgSource(img2)).into(img2a)
from net.imglib2.view import Views
from net.imglib2.img.array import ArrayImgs
from net.imglib2.util import Intervals, ImgUtil
from net.imglib2.algorithm.math.ImgMath import compute, maximum
from java.lang import Math
imp = IJ.getImage()
stack = imp.getStack()
# Grab the underlying ImgLib2 object, or wrap into one
if isinstance(stack, ImageJVirtualStack):
srcF = ImageJVirtualStack.getDeclaredField("source")
srcF.setAccessible(True)
img4D = srcF.get(stack)
else:
img4D = IL.wrap(imp)
def projectLastDimension(img, showEarly=False):
"""
Project the last dimension, e.g. a 4D image becomes a 3D image,
using the provided reducing function (e.g. min, max, sum).
"""
last_dimension = img.numDimensions() - 1
# The collapsed image
imgC = ArrayImgs.unsignedShorts(
[img.dimension(d) for d in xrange(last_dimension)])
if showEarly:
showStack(
imgC,
def poreDetectionUV(inputImp, inputDataset, inputRoi, ops, data, display, detectionParameters):
title = inputImp.getTitle()
title=title.replace('UV', 'SD')
print title
#trueColorImp= WindowManager.getImage(title)
#print type( trueColorImp)
# calculate are of roi
stats=inputImp.getStatistics()
inputRoiArea=stats.area
print inputRoi
# get the bounding box of the active roi
inputRec = inputRoi.getBounds()
x1=long(inputRec.getX())
y1=long(inputRec.getY())
x2=x1+long(inputRec.getWidth())-1
y2=y1+long(inputRec.getHeight())-1
print x1
print y1
print x2
print y2
# crop the roi
interval=FinalInterval( array([x1, y1 ,0], 'l'), array([x2, y2, 2], 'l') )
cropped=ops.crop(interval, None, inputDataset.getImgPlus() )
datacropped=data.create(cropped)
display.createDisplay("cropped", datacropped)
croppedPlus=IJ.getImage()
duplicator=Duplicator()
substackMaker=SubstackMaker()
# duplicate the roi
duplicate=duplicator.run(croppedPlus)
#duplicate.show()
# convert duplicate of roi to HSB and get brightness
IJ.run(duplicate, "HSB Stack", "");
brightnessPlus=substackMaker.makeSubstack(duplicate, "3-3")
brightness=ImgPlus(ImageJFunctions.wrapByte(brightnessPlus))
brightnessPlus.setTitle("Brightness")
#brightnessPlus.show()
# make another duplicate, split channels and get red
duplicate=duplicator.run(croppedPlus)
channels=ChannelSplitter().split(duplicate)
redPlus=channels[0]
red=ImgPlus(ImageJFunctions.wrapByte(redPlus))
redPlus.show()
# convert to lab
IJ.run(croppedPlus, "Color Transformer", "colour=Lab")
IJ.selectWindow('Lab')
labPlus=IJ.getImage()
# get the A channel
APlus=substackMaker.makeSubstack(labPlus, "2-2")
APlus.setTitle('A')
APlus.show()
APlus.getProcessor().resetMinAndMax()
APlus.updateAndDraw()
AThresholded=threshold(APlus, -10, 50)
# get the B channel
BPlus=substackMaker.makeSubstack(labPlus, "3-3")
BPlus.setTitle('B')
BPlus.show()
BPlus.getProcessor().resetMinAndMax()
BPlus.updateAndDraw()
BThresholded=threshold(BPlus, -10, 50)
# AND the Athreshold and Bthreshold to get a map of the red pixels
ic = ImageCalculator();
redMask = ic.run("AND create", AThresholded, BThresholded);
IJ.run(redMask, "Divide...", "value=255");
#redMask.show()
labPlus.close()
# threshold the spots from the red channel
thresholdedred=SpotDetectionGray(red, data, display, ops, False)
display.createDisplay("thresholdedred", data.create(thresholdedred))
impthresholdedred = ImageJFunctions.wrap(thresholdedred, "wrapped")
# threshold the spots from the brightness channel
thresholded=SpotDetectionGray(brightness, data, display, ops, False)
display.createDisplay("thresholded", data.create(thresholded))
impthresholded=ImageJFunctions.wrap(thresholded, "wrapped")
# or the thresholding results from red and brightness channel
impthresholded = ic.run("OR create", impthresholded, impthresholdedred);
# convert to mask
Prefs.blackBackground = True
IJ.run(impthresholded, "Convert to Mask", "")
# clear the region outside the roi
clone=inputRoi.clone()
clone.setLocation(0,0)
Utility.clearOutsideRoi(impthresholded, clone)
# create a hidden roi manager
roim = RoiManager(True)
# count the particlesimp.getProcessor().setColor(Color.green)
countParticles(impthresholded, roim, detectionParameters.minSize, detectionParameters.maxSize, detectionParameters.minCircularity, detectionParameters.maxCircularity)
# define a function to determine the percentage of pixels that are foreground in a binary image
# inputs:
# imp: binary image, 0=background, 1=foreground
# roi: an roi
def isRed(imp, roi):
stats = imp.getStatistics()
if (stats.mean>detectionParameters.redPercentage): return True
else: return False
def notRed(imp, roi):
stats = imp.getStatistics()
if (stats.mean>detectionParameters.redPercentage): return False
else: return True
allList=[]
for roi in roim.getRoisAsArray():
allList.append(roi.clone())
# count particles that are red
redList=CountParticles.filterParticlesWithFunction(redMask, allList, isRed)
# count particles that are red
blueList=CountParticles.filterParticlesWithFunction(redMask, allList, notRed)
print "Total particles: "+str(len(allList))
print "Filtered particles: "+str(len(redList))
# for each roi add the offset such that the roi is positioned in the correct location for the
# original image
[roi.setLocation(roi.getXBase()+x1, roi.getYBase()+y1) for roi in allList]
# create an overlay and add the rois
overlay1=Overlay()
inputRoi.setStrokeColor(Color.green)
overlay1.add(inputRoi)
[CountParticles.addParticleToOverlay(roi, overlay1, Color.red) for roi in redList]
[CountParticles.addParticleToOverlay(roi, overlay1, Color.cyan) for roi in blueList]
def drawAllRoisOnImage(imp, mainRoi, redList, blueList):
imp.getProcessor().setColor(Color.green)
IJ.run(imp, "Line Width...", "line=3");
imp.getProcessor().draw(inputRoi)
imp.updateAndDraw()
IJ.run(imp, "Line Width...", "line=1");
[CountParticles.drawParticleOnImage(imp, roi, Color.magenta) for roi in redList]
[CountParticles.drawParticleOnImage(imp, roi, Color.green) for roi in blueList]
imp.updateAndDraw()
drawAllRoisOnImage(inputImp, inputRoi, redList, blueList)
#drawAllRoisOnImage(trueColorImp, inputRoi, redList, blueList)
# draw overlay
#inputImp.setOverlay(overlay1)
#inputImp.updateAndDraw()
statsdict=CountParticles.calculateParticleStats(APlus, BPlus, redMask, roim.getRoisAsArray())
print inputRoiArea
areas=statsdict['Areas']
poreArea=0
for area in areas:
poreArea=poreArea+area
ATotal=0
ALevels=statsdict['ALevel']
for A in ALevels:
ATotal=ATotal+A
AAverage=ATotal/len(ALevels)
BTotal=0
BLevels=statsdict['BLevel']
for B in BLevels:
BTotal=BTotal+B
BAverage=BTotal/len(BLevels)
redTotal=0
redPercentages=statsdict['redPercentage']
for red in redPercentages:
redTotal=redTotal+red
redAverage=redTotal/len(redPercentages)
pixwidth=inputImp.getCalibration().pixelWidth
inputRoiArea=inputRoiArea/(pixwidth*pixwidth)
print str(len(allList))+" "+str(len(redList))+" "+str(len(blueList))+" "+str(poreArea/inputRoiArea)+" "+str(redAverage)
#@ OpService ops #@ ImgPlus inputData #@ Double sigma #@OUTPUT ImgPlus logFiltered #@OUTPUT ImgPlus thresholded # Run this tutorial using the C0Z12 image generated in the 'Crop Confocal Series' tutorial. # To generate the C0Z12 image, do the following: # Go to 'file>Open Samples>Confocal Series' and make sure confocal-series.tif is the active image and # run the Crop Confocal Series tutorial. from net.imglib2.img.display.imagej import ImageJFunctions from ij import IJ # create a log kernel logKernel = ops.create().kernelLog(inputData.numDimensions(), sigma) logFiltered = ops.filter().convolve(inputData, logKernel) # otsu threshold and display thresholded = ops.threshold().otsu(logFiltered) # convert to imagej1 imageplus so we can run analyze particles impThresholded = ImageJFunctions.wrap(thresholded, "wrapped") # convert to mask and analyze particles IJ.run(impThresholded, "Convert to Mask", "") IJ.run(impThresholded, "Analyze Particles...", "display add")
from ij import ImagePlus
from ij.plugin.filter import BackgroundSubtracter
from jarray import array
from fiji.plugin.trackmate.detection import DetectionUtils
from net.imagej.ops.convert import ConvertPixCopy
###############################################################
# Step 1: Rolling ball background subtraction (still uses IJ1)
###############################################################
# wrap as ImagePlus
imp=ImageJFunctions.wrap(inputData, "wrapped")
# create and call background subtractor
bgs=BackgroundSubtracter()
bgs.rollingBallBackground(imp.getProcessor(), 50.0, False, False, True, True, True)
# wrap the result of background subtraction as Img
iplus=ImagePlus("bgs", imp.getProcessor())
imgBgs=ImageJFunctions.wrapShort(iplus)
###############################################################
# Step 2: Laplacian of Gaussian Filtering
###############################################################
# convert to 32 bit
def run(imp, preprocessor_path, postprocessor_path, threshold_method, user_comment):
output_parameters = {"image title" : "",
"preprocessor path" : float,
"post processor path" : float,
"thresholding op" : float,
"use ridge detection" : bool,
"high contrast" : int,
"low contrast" : int,
"line width" : int,
"minimum line length" : int,
"mitochondrial footprint" : float,
"branch length mean" : float,
"branch length median" : float,
"branch length stdevp" : float,
"summed branch lengths mean" : float,
"summed branch lengths median" : float,
"summed branch lengths stdevp" : float,
"network branches mean" : float,
"network branches median" : float,
"network branches stdevp" : float}
output_order = ["image title",
"preprocessor path",
"post processor path",
"thresholding op",
"use ridge detection",
"high contrast",
"low contrast",
"line width",
"minimum line length",
"mitochondrial footprint",
"branch length mean",
"branch length median",
"branch length stdevp",
"summed branch lengths mean",
"summed branch lengths median",
"summed branch lengths stdevp",
"network branches mean",
"network branches median",
"network branches stdevp"]
# Perform any preprocessing steps...
status.showStatus("Preprocessing image...")
if preprocessor_path != None:
if preprocessor_path.exists():
preprocessor_thread = scripts.run(preprocessor_path, True)
preprocessor_thread.get()
imp = WindowManager.getCurrentImage()
else:
pass
# Store all of the analysis parameters in the table
if preprocessor_path == None:
preprocessor_str = ""
else:
preprocessor_str = preprocessor_path.getCanonicalPath()
if postprocessor_path == None:
postprocessor_str = ""
else:
postprocessor_str = preprocessor_path.getCanonicalPath()
output_parameters["preprocessor path"] = preprocessor_str
output_parameters["post processor path"] = postprocessor_str
output_parameters["thresholding op"] = threshold_method
output_parameters["use ridge detection"] = str(use_ridge_detection)
output_parameters["high contrast"] = rd_max
output_parameters["low contrast"] = rd_min
output_parameters["line width"] = rd_width
output_parameters["minimum line length"] = rd_length
# Create and ImgPlus copy of the ImagePlus for thresholding with ops...
status.showStatus("Determining threshold level...")
imp_title = imp.getTitle()
slices = imp.getNSlices()
frames = imp.getNFrames()
output_parameters["image title"] = imp_title
imp_calibration = imp.getCalibration()
imp_channel = Duplicator().run(imp, imp.getChannel(), imp.getChannel(), 1, slices, 1, frames)
img = ImageJFunctions.wrap(imp_channel)
# Determine the threshold value if not manual...
binary_img = ops.run("threshold.%s"%threshold_method, img)
binary = ImageJFunctions.wrap(binary_img, 'binary')
binary.setCalibration(imp_calibration)
binary.setDimensions(1, slices, 1)
# Get the total_area
if binary.getNSlices() == 1:
area = binary.getStatistics(Measurements.AREA).area
area_fraction = binary.getStatistics(Measurements.AREA_FRACTION).areaFraction
output_parameters["mitochondrial footprint"] = area * area_fraction / 100.0
else:
mito_footprint = 0.0
for slice in range(binary.getNSlices()):
binary.setSliceWithoutUpdate(slice)
area = binary.getStatistics(Measurements.AREA).area
area_fraction = binary.getStatistics(Measurements.AREA_FRACTION).areaFraction
mito_footprint += area * area_fraction / 100.0
output_parameters["mitochondrial footprint"] = mito_footprint * imp_calibration.pixelDepth
# Generate skeleton from masked binary ...
# Generate ridges first if using Ridge Detection
if use_ridge_detection and (imp.getNSlices() == 1):
skeleton = ridge_detect(imp, rd_max, rd_min, rd_width, rd_length)
else:
skeleton = Duplicator().run(binary)
IJ.run(skeleton, "Skeletonize (2D/3D)", "")
# Analyze the skeleton...
status.showStatus("Setting up skeleton analysis...")
skel = AnalyzeSkeleton_()
skel.setup("", skeleton)
status.showStatus("Analyzing skeleton...")
skel_result = skel.run()
status.showStatus("Computing graph based parameters...")
branch_lengths = []
summed_lengths = []
graphs = skel_result.getGraph()
for graph in graphs:
summed_length = 0.0
edges = graph.getEdges()
for edge in edges:
length = edge.getLength()
branch_lengths.append(length)
summed_length += length
summed_lengths.append(summed_length)
output_parameters["branch length mean"] = eztables.statistical.average(branch_lengths)
output_parameters["branch length median"] = eztables.statistical.median(branch_lengths)
output_parameters["branch length stdevp"] = eztables.statistical.stdevp(branch_lengths)
output_parameters["summed branch lengths mean"] = eztables.statistical.average(summed_lengths)
output_parameters["summed branch lengths median"] = eztables.statistical.median(summed_lengths)
output_parameters["summed branch lengths stdevp"] = eztables.statistical.stdevp(summed_lengths)
branches = list(skel_result.getBranches())
output_parameters["network branches mean"] = eztables.statistical.average(branches)
output_parameters["network branches median"] = eztables.statistical.median(branches)
output_parameters["network branches stdevp"] = eztables.statistical.stdevp(branches)
# Create/append results to a ResultsTable...
status.showStatus("Display results...")
if "Mito Morphology" in list(WindowManager.getNonImageTitles()):
rt = WindowManager.getWindow("Mito Morphology").getTextPanel().getOrCreateResultsTable()
else:
rt = ResultsTable()
rt.incrementCounter()
for key in output_order:
rt.addValue(key, str(output_parameters[key]))
# Add user comments intelligently
if user_comment != None and user_comment != "":
if "=" in user_comment:
comments = user_comment.split(",")
for comment in comments:
rt.addValue(comment.split("=")[0], comment.split("=")[1])
else:
rt.addValue("Comment", user_comment)
rt.show("Mito Morphology")
# Create overlays on the original ImagePlus and display them if 2D...
if imp.getNSlices() == 1:
status.showStatus("Generate overlays...")
IJ.run(skeleton, "Green", "")
IJ.run(binary, "Magenta", "")
skeleton_ROI = ImageRoi(0,0,skeleton.getProcessor())
skeleton_ROI.setZeroTransparent(True)
skeleton_ROI.setOpacity(1.0)
binary_ROI = ImageRoi(0,0,binary.getProcessor())
binary_ROI.setZeroTransparent(True)
binary_ROI.setOpacity(0.25)
overlay = Overlay()
overlay.add(binary_ROI)
overlay.add(skeleton_ROI)
imp.setOverlay(overlay)
imp.updateAndDraw()
# Generate a 3D model if a stack
if imp.getNSlices() > 1:
univ = Image3DUniverse()
univ.show()
pixelWidth = imp_calibration.pixelWidth
pixelHeight = imp_calibration.pixelHeight
pixelDepth = imp_calibration.pixelDepth
# Add end points in yellow
end_points = skel_result.getListOfEndPoints()
end_point_list = []
for p in end_points:
end_point_list.append(Point3f(p.x * pixelWidth, p.y * pixelHeight, p.z * pixelDepth))
univ.addIcospheres(end_point_list, Color3f(255.0, 255.0, 0.0), 2, 1*pixelDepth, "endpoints")
# Add junctions in magenta
junctions = skel_result.getListOfJunctionVoxels()
junction_list = []
for p in junctions:
junction_list.append(Point3f(p.x * pixelWidth, p.y * pixelHeight, p.z * pixelDepth))
univ.addIcospheres(junction_list, Color3f(255.0, 0.0, 255.0), 2, 1*pixelDepth, "junctions")
# Add the lines in green
graphs = skel_result.getGraph()
for graph in range(len(graphs)):
edges = graphs[graph].getEdges()
for edge in range(len(edges)):
branch_points = []
for p in edges[edge].getSlabs():
branch_points.append(Point3f(p.x * pixelWidth, p.y * pixelHeight, p.z * pixelDepth))
univ.addLineMesh(branch_points, Color3f(0.0, 255.0, 0.0), "branch-%s-%s"%(graph, edge), True)
# Add the surface
univ.addMesh(binary)
univ.getContent("binary").setTransparency(0.5)
# Perform any postprocessing steps...
status.showStatus("Running postprocessing...")
if postprocessor_path != None:
if postprocessor_path.exists():
postprocessor_thread = scripts.run(postprocessor_path, True)
postprocessor_thread.get()
else:
pass
status.showStatus("Done analysis!")
categorizer = CategorizerWithState.generateFixedRange( ranges )
categorizer = RangedCategorizer( nImages )
matrices = DenseCorrelationMatricesWithRadius(
wrappedImage,
radii[0],
c,
DoubleType()
)
result = MultiScaleEstimation.estimateZCoordinates( matrices, startingCoordinates, c, radii, steps, visitor, categorizer, opt )
IJ.log("done")
resultFileName = '%s/result.tif' % home.rstrip('/')
imp = ImageJFunctions.wrap( result, 'result' )
IJ.saveAsTiff(imp.duplicate(), resultFileName)
relativeResult = result.copy()
c = relativeResult.cursor()
while c.hasNext():
c.fwd()
cur = c.get()
val = cur.get()
cur.set( val - c.getDoublePosition( 2 ) )
relativeResultFileName = '%s/relativeResult.tif' % home.rstrip('/')
imp = ImageJFunctions.wrap( relativeResult, 'relative result' )
IJ.saveAsTiff(imp.duplicate(), relativeResultFileName)
ratio = [ wrappedImage.dimension( 0 )*1.0/result.dimension( 0 ), wrappedImage.dimension( 1 )*1.0/result.dimension( 1 ) ]
if title.startswith("Energy"):
# Keep "Energy"
energyImp = impOpened;
### Remove holes from image ###
# Selection mask from overlay
manualMask = maskFromOverlay(imp);
# Invert
invertedManualMask = invertImg(manualMask);
if IJ.debugMode:
displays.createDisplay("manual-mask", ImgPlus(invertedManualMask));
# Threshold energyImp
wrappedImg = ImageJFunctions.wrap(energyImp);
if useEnergy:
energyMask = ops.create().img(wrappedImg, BitType());
ops.threshold().apply(energyMask, wrappedImg, FloatType(0.20));
# Invert, b/c we want to have lower energy regions
#invertedOutput = invertImg(output);
if IJ.debugMode:
displays.createDisplay("energy-mask", ImgPlus(energyMask));
# Convert mask to binary image
wrappedManualMask = ImageJFunctions.wrap(maskImp);
coherencyMask = ops.create().img(wrappedImg, BitType());
ops.convert().bit(coherencyMask, wrappedManualMask);
def poreDetectionTrueColor(inputImp, inputDataset, inputRoi, ops, data, display, detectionParameters):
detectionParameters.setCalibration(inputImp);
# calculate area of roi
stats=inputImp.getStatistics()
inputRoiArea=stats.area
# get the bounding box of the active roi
inputRec = inputRoi.getBounds()
x1=long(inputRec.getX())
y1=long(inputRec.getY())
x2=x1+long(inputRec.getWidth())-1
y2=y1+long(inputRec.getHeight())-1
# crop the roi
interval=FinalInterval( array([x1, y1 ,0], 'l'), array([x2, y2, 2], 'l') )
cropped=ops.image().crop(inputDataset.getImgPlus(), interval )
datacropped=data.create(cropped)
display.createDisplay("cropped", datacropped)
croppedPlus=IJ.getImage()
# instantiate the duplicator and the substackmaker classes
duplicator=Duplicator()
substackMaker=SubstackMaker()
# duplicate the roi
duplicate=duplicator.run(croppedPlus)
# separate into RGB and get the blue channel
IJ.run(duplicate, "RGB Stack", "")
bluePlus=substackMaker.makeSubstack(duplicate, "3-3")
blue=ImgPlus(ImageJFunctions.wrapByte(bluePlus))
bluePlus.setTitle("Blue")
# duplicate and look for bright spots
thresholdedLight=SpotDetection2(bluePlus)
# duplicate and look for dark spots
thresholdedDark=SpotDetection3(bluePlus, True)
# convert to mask
Prefs.blackBackground = True
#IJ.run(thresholdedDark, "Convert to Mask", "")substackMaker
# clear the region outside the roi
clone=inputRoi.clone()
clone.setLocation(0,0)
Utility.clearOutsideRoi(thresholdedLight, clone)
Utility.clearOutsideRoi(thresholdedDark, clone)
roimClosedPores = RoiManager(True)
detectionParameters.setCalibration(thresholdedDark)
countParticles(thresholdedDark, roimClosedPores, detectionParameters.closedPoresMinSize, detectionParameters.closedPoresMaxSize, \
detectionParameters.closedPoresMinCircularity, detectionParameters.closedPoresMaxCircularity)
# count number of open pores
roimOpenPores = RoiManager(True)
detectionParameters.setCalibration(thresholdedDark)
countParticles(thresholdedDark, roimOpenPores, detectionParameters.openPoresMinSize, detectionParameters.openPoresMaxSize, \
detectionParameters.openPoresMinCircularity, detectionParameters.openPoresMaxCircularity)
# count number of sebum
roimSebum = RoiManager(True)
detectionParameters.setCalibration(thresholdedLight)
countParticles(thresholdedLight, roimSebum, detectionParameters.sebumMinSize, detectionParameters.sebumMaxSize, \
detectionParameters.sebumMinCircularity, detectionParameters.sebumMaxCircularity)
# create lists for open and closed pores
closedPoresList=[]
for roi in roimClosedPores.getRoisAsArray():
closedPoresList.append(roi.clone())
openPoresList=[]
for roi in roimOpenPores.getRoisAsArray():
openPoresList.append(roi.clone())
# create lists for sebum
sebumsList=[]
for roi in roimSebum.getRoisAsArray():
sebumsList.append(roi.clone())
# a list of all pores
allList=closedPoresList+openPoresList+sebumsList
# calculate the stats for all pores
detectionParameters.setCalibration(bluePlus)
statsDict=CountParticles.calculateParticleStats(bluePlus, allList)
poresTotalArea=0
for area in statsDict['Areas']:
poresTotalArea=poresTotalArea+area
print area
poresAverageArea=poresTotalArea/len(statsDict['Areas'])
# for each roi add the offset such that the roi is positioned in the correct location for the
# original image
[roi.setLocation(roi.getXBase()+x1, roi.getYBase()+y1) for roi in allList]
# draw the rois on the image
inputImp.getProcessor().setColor(Color.green)
IJ.run(inputImp, "Line Width...", "line=3");
inputImp.getProcessor().draw(inputRoi)
IJ.run(inputImp, "Line Width...", "line=1");
[CountParticles.drawParticleOnImage(inputImp, roi, Color.red) for roi in closedPoresList]
[CountParticles.drawParticleOnImage(inputImp, roi, Color.magenta) for roi in openPoresList]
[CountParticles.drawParticleOnImage(inputImp, roi, Color.green) for roi in sebumsList]
inputImp.updateAndDraw()
# close images that represent intermediate steps
croppedPlus.changes=False
croppedPlus.close()
bluePlus.changes=False
bluePlus.close()
print "Total ROI Area: "+str(inputRoiArea)
print "Num closed pores: "+str(len(closedPoresList))
print "Num open pores: "+str(len(openPoresList))
print "Num sebums: "+str(len(sebumsList))
print "Total particles: "+str(len(allList))+ " total area: "+str(poresTotalArea)
statslist=[inputRoiArea, len(allList), len(closedPoresList), len(openPoresList), len(sebumsList), poresAverageArea, 100*poresTotalArea/inputRoiArea]
header=[Messages.TotalAreaMask, Messages.TotalDetectedPores, Messages.ClosedPores, Messages.OpenPores, Messages.Sebum, Messages.PoresAverageArea, Messages.PoresFractionalArea]
return header,statslist
from net.imglib2.img.display.imagej import ImageJFunctions;
from net.imglib2.type.numeric.complex import ComplexFloatType;
from net.imglib2.outofbounds import OutOfBoundsMirrorExpWindowingFactory;
from jarray import array
# perform fft of the template
# basic fft call with no parameters
#templateFFT=ops.fft(template.getImgPlus())
# alternatively to pass an outofbounds factory we have to pass every parameter. We want:
# output='None', input=template, borderSize=10 by 10, fast='True', outOfBoundsFactor=OutOfBoundsMirrorExpWindowingFactory
templateFFT=ops.fft(None, template.getImgPlus(), array([10, 10], 'l'), True, OutOfBoundsMirrorExpWindowingFactory(0.25));
ImageJFunctions.show(templateFFT).setTitle("fft power spectrum");
# complex invert the fft of the template
c = ComplexFloatType();
for t in templateFFT:
c.set(t);
t.complexConjugate();
c.mul(t);
t.div(c);
# create Img memory for inverse FFT and compute inverse
templateInverse=ops.createimg(array([template.dimension(0), template.dimension(1)], 'l'))
ops.ifft(templateInverse, templateFFT)
display.createDisplay("template inverse", templateInverse)
display.createDisplay("red", data.create(red))
display.createDisplay("green", data.create(green))
red32=ImgPlus( ops.create( dimensions2D, FloatType()) )
ops.convert(red32, red, ConvertPixCopy() )
green32=ImgPlus( ops.create( dimensions2D, FloatType()) )
ops.convert(green32, green, ConvertPixCopy() )
redgreen= ops.add(red32,green32)
display.createDisplay("redgreen", data.create(redgreen))
# make a copy of the red + green image
copy=redgreen.copy()
# wrap as ImagePlus
imp=ImageJFunctions.wrap(copy, "wrapped")
# create and call background subtractor
bgs=BackgroundSubtracter()
bgs.rollingBallBackground(imp.getProcessor(), 50.0, False, False, True, True, True)
# wrap as Img and display
iplus=ImagePlus("bgs", imp.getProcessor())
print type(imp)
imgBgs=ImageJFunctions.wrapFloat(iplus)
display.createDisplay("back_sub", data.create(ImgPlus(imgBgs)))
kernel = DetectionUtils.createLoGKernel( 3.0, 2, array([1.0, 1.0], 'd' ) )
print type(kernel)
print type(imgBgs)
from net.imglib2.converter import ComplexPhaseFloatConverter
from net.imglib2.converter import ComplexRealFloatConverter
from jarray import array
# perform fft of the template
# basic fft call with no parameters
templateFFT = ops.filter().fft(template.getImgPlus())
# alternatively to pass an outofbounds factory we have to pass every parameter. We want:
# output='None', input=template, borderSize=10 by 10, fast='True', outOfBoundsFactor=OutOfBoundsMirrorExpWindowingFactory
# templateFFT=ops.fft(None, template.getImgPlus(), array([10, 10], 'l'), True, OutOfBoundsMirrorExpWindowingFactory(0.25));
# display fft (by default in generalized log power spectrum)
ImageJFunctions.show(templateFFT).setTitle("fft power spectrum")
# display fft phase spectrum
ImageJFunctions.show(templateFFT, ComplexPhaseFloatConverter()).setTitle("fft phase spectrum")
# display fft real values
ImageJFunctions.show(templateFFT, ComplexRealFloatConverter()).setTitle("fft real values")
# display fft imaginary values
ImageJFunctions.show(templateFFT, ComplexImaginaryFloatConverter()).setTitle("fft imaginary values")
# complex invert the fft of the template
c = ComplexFloatType()
for t in templateFFT:
c.set(t)
t.complexConjugate()
def poreDetectionUV(inputImp, inputDataset, inputRoi, ops, data, display, detectionParameters):
# set calibration
detectionParameters.setCalibration(inputImp);
# calculate area of roi
stats=inputImp.getStatistics()
inputRoiArea=stats.area
# get the bounding box of the active roi
inputRec = inputRoi.getBounds()
x1=long(inputRec.getX())
y1=long(inputRec.getY())
x2=x1+long(inputRec.getWidth())-1
y2=y1+long(inputRec.getHeight())-1
# crop the roi
interval=FinalInterval( array([x1, y1 ,0], 'l'), array([x2, y2, 2], 'l') )
#cropped=ops.image().crop(interval, None, inputDataset.getImgPlus() )
cropped=ops.image().crop(inputDataset.getImgPlus() , interval)
datacropped=data.create(cropped)
display.createDisplay("cropped", datacropped)
croppedPlus=IJ.getImage()
# instantiate the duplicator and the substackmaker classes
duplicator=Duplicator()
substackMaker=SubstackMaker()
# duplicate the roi
duplicate=duplicator.run(croppedPlus)
# convert duplicate of roi to HSB and get brightness
IJ.run(duplicate, "HSB Stack", "");
brightnessPlus=substackMaker.makeSubstack(duplicate, "3-3")
brightness=ImgPlus(ImageJFunctions.wrapByte(brightnessPlus))
brightnessPlus.setTitle("Brightness")
#brightnessPlus.show()
# make another duplicate, split channels and get red
duplicate=duplicator.run(croppedPlus)
channels=ChannelSplitter().split(duplicate)
redPlus=channels[0]
red=ImgPlus(ImageJFunctions.wrapByte(redPlus))
# convert to lab
IJ.run(croppedPlus, "Color Transformer", "colour=Lab")
IJ.selectWindow('Lab')
labPlus=IJ.getImage()
croppedPlus.changes=False
croppedPlus.close()
# get the A channel
APlus=substackMaker.makeSubstack(labPlus, "2-2")
APlus.setTitle('A')
#APlus.show()
APlus.getProcessor().resetMinAndMax()
#APlus.updateAndDraw()
AThresholded=threshold(APlus, -10, 50)
# get the B channel
BPlus=substackMaker.makeSubstack(labPlus, "3-3")
BPlus.setTitle('B')
#BPlus.show()
BPlus.getProcessor().resetMinAndMax()
#BPlus.updateAndDraw()
BThresholded=threshold(BPlus, -10, 50)
# AND the Athreshold and Bthreshold to get a map of the red pixels
ic = ImageCalculator();
redMask = ic.run("AND create", AThresholded, BThresholded);
IJ.run(redMask, "Divide...", "value=255");
labPlus.close()
fast=True
# threshold the spots from the red channel
if (fast==False):
thresholdedred=SpotDetectionGray(red, data, display, ops, "triangle")
impthresholdedred = ImageJFunctions.wrap(thresholdedred, "wrapped")
else:
impthresholdedred=SpotDetection2(redPlus)
# threshold the spots from the brightness channel
if (fast==False):
thresholded=SpotDetectionGray(brightness, data, display, ops, "triangle")
impthresholded=ImageJFunctions.wrap(thresholded, "wrapped")
else:
impthresholded=SpotDetection2(brightnessPlus)
# or the thresholding results from red and brightness channel
impthresholded = ic.run("OR create", impthresholded, impthresholdedred);
roim=RoiManager(True)
# convert to mask
Prefs.blackBackground = True
IJ.run(impthresholded, "Convert to Mask", "")
def isRed(imp, roi):
stats = imp.getStatistics()
if (stats.mean>detectionParameters.porphyrinRedPercentage): return True
else: return False
def notRed(imp, roi):
stats = imp.getStatistics()
if (stats.mean>detectionParameters.porphyrinRedPercentage): return False
else: return True
roiClone=inputRoi.clone()
roiClone.setLocation(0,0)
Utility.clearOutsideRoi(impthresholded, roiClone)
impthresholded.show()
countParticles(impthresholded, roim, detectionParameters.porphyrinMinSize, detectionParameters.porphyrinMaxSize, \
detectionParameters.porphyrinMinCircularity, detectionParameters.porphyrinMaxCircularity)
uvPoreList=[]
for roi in roim.getRoisAsArray():
uvPoreList.append(roi.clone())
#allList=uvPoreList+closedPoresList+openPoresList
# count particles that are porphyrins (red)
porphyrinList=CountParticles.filterParticlesWithFunction(redMask, uvPoreList, isRed)
# count particles that are visible on uv but not porphyrins
sebumList=CountParticles.filterParticlesWithFunction(redMask, uvPoreList, notRed)
# for each roi add the offset such that the roi is positioned in the correct location for the
# original image
[roi.setLocation(roi.getXBase()+x1, roi.getYBase()+y1) for roi in uvPoreList]
# draw the ROIs on to the image
inputImp.getProcessor().setColor(Color.green)
IJ.run(inputImp, "Line Width...", "line=3");
inputImp.getProcessor().draw(inputRoi)
IJ.run(inputImp, "Line Width...", "line=1");
[CountParticles.drawParticleOnImage(inputImp, roi, Color.magenta) for roi in porphyrinList]
[CountParticles.drawParticleOnImage(inputImp, roi, Color.green) for roi in sebumList]
inputImp.updateAndDraw()
# calculate stats for the UV visible particles
detectionParameters.setCalibration(APlus)
statsDictUV=CountParticles.calculateParticleStatsUV(APlus, BPlus, redMask, roim.getRoisAsArray())
totalUVPoreArea=0
for area in statsDictUV['Areas']:
totalUVPoreArea=totalUVPoreArea+area
averageUVPoreArea=totalUVPoreArea/len(statsDictUV['Areas'])
poreDiameter=0
for diameter in statsDictUV['Diameters']:
poreDiameter=poreDiameter+diameter
poreDiameter=poreDiameter/len(statsDictUV['Diameters'])
redTotal=0
for red in statsDictUV['redPercentage']:
redTotal=redTotal+red
redAverage=redTotal/len(statsDictUV['redPercentage'])
statslist=[len(porphyrinList), 100*redAverage];
statsheader=[Messages.Porphyrins, Messages.PercentageRedPixels]
print("Roi Area: "+str(inputRoiArea))
print("Total Pore Area: "+str(totalUVPoreArea))
print("Average Pore Area: "+str(averageUVPoreArea))
print str(len(uvPoreList))+" "+str(len(porphyrinList))+" "+str(len(sebumList))+" "+str(100*totalUVPoreArea/inputRoiArea)+" "+str(100*redAverage)
print "cp min circularity"+str(detectionParameters.closedPoresMinCircularity)+":"+str(detectionParameters.closedPoresMinSize)
# close the thresholded image
impthresholded.changes=False
impthresholded.close()
return uvPoreList, statslist, statsheader
from ij import IJ
from ij.gui import PointRoi
from ij.measure import ResultsTable
from net.imglib2.img.display.imagej import ImageJFunctions as IL
from net.imglib2.view import Views
from net.imglib2.algorithm.dog import DogDetection
from jarray import zeros
# Load a greyscale single-channel image: the "Embryos" sample image
imp = IJ.openImage("https://imagej.nih.gov/ij/images/embryos.jpg")
imp.show()
# Convert it to 8-bit
IJ.run(imp, "8-bit", "")
# Access its pixel data from an ImgLib2 data structure: a RandomAccessibleInterval
img = IL.wrapReal(imp)
# View as an infinite image, mirrored at the edges which is ideal for Gaussians
imgE = Views.extendMirrorSingle(img)
# Parameters for a Difference of Gaussian to detect embryo positions
calibration = [1.0
for i in range(img.numDimensions())] # no calibration: identity
sigmaSmaller = 15 # in pixels: a quarter of the radius of an embryo
sigmaLarger = 30 # pixels: half the radius of an embryo
extremaType = DogDetection.ExtremaType.MAXIMA
minPeakValue = 10
normalizedMinPeakValue = False
# In the differece of gaussian peak detection, the img acts as the interval
# within which to look for peaks. The processing is done on the infinite imgE.
imgSource.getProcessor().multiply( 1.0 / normalizeBy )
nThreads = 1
serializeCorrelations = True
deserializeCorrelations = not serializeCorrelations
options = Options.generateDefaultOptions()
options.shiftProportion = 0.6
options.nIterations = 30
options.withRegularization = True
options.minimumSectionThickness = 0.0001
options.multiplierGenerationRegularizerWeight = 0.1
options.multiplierEstimationIterations = 10
options.withReorder = False
options.coordinateUpdateRegularizerWeight = 0.0
thickness_estimation_repo_dir = '/groups/saalfeld/home/hanslovskyp/workspace/em-thickness-estimation'
wholeStrip = ImageJFunctions.wrap( imgSource )
timestamp = str(datetime.datetime.now() )
threads = []
upper = start
while upper < stop:
correlationRange = int(c)
lower = max( 0, upper - overlap )
upper = lower + interval
if upper + step >= stop:
upper = min( stop, upper + step )
home = root.rstrip('/') + '/range=%d_%s/lower=%d_upper=%d'
home = home % ( correlationRange, timestamp, lower, upper )
make_sure_path_exists( home.rstrip('/') + '/' )
from net.imglib2.realtransform import RealViews as RV from net.imglib2.realtransform import AffineTransform3D from net.imglib2.img.display.imagej import ImageJFunctions as IL from ij import IJ from net.imglib2.view import Views from net.imglib2.interpolation.randomaccess import NLinearInterpolatorFactory from net.imglib2.util import Intervals from math import radians, floor, ceil from jarray import zeros from pprint import pprint # Load an image (of any dimensions) imp = IJ.getImage() # Access its pixel data as an ImgLib2 RandomAccessibleInterval img = IL.wrapReal(imp) # View as an infinite image, with value zero beyond the image edges imgE = Views.extendZero(img) # View the pixel data as a RealRandomAccessible # (that is, accessible with sub-pixel precision) # by using an interpolator imgR = Views.interpolate(imgE, NLinearInterpolatorFactory()) # Define a rotation by +30 degrees relative to the image center in the XY axes angle = radians(30) toCenter = AffineTransform3D() cx = img.dimension(0) / 2.0 # X axis cy = img.dimension(1) / 2.0 # Y axis toCenter.setTranslation(-cx, -cy, 0.0) # no translation in the Z axis
# wrap as ImagePlus
imp=IJ.getImage()
#imp=ImageJFunctions.wrap(blue, "wrapped")
# create and call background subtractor
bgs=BackgroundSubtracter()
bgs.rollingBallBackground(imp.getProcessor(), 20.0, False, True, True, True, True)
imp.getProcessor().invert()
imp.show()
print imp
# wrap as Img and display
iplus=ImagePlus("bgs", imp.getProcessor())
imgBgs=ImageJFunctions.wrapByte(iplus)
print iplus
print imgBgs
display.createDisplay("back_sub", data.create(ImgPlus(imgBgs)))
'''
kernel = DetectionUtils.createLoGKernel( 2.0, 2, array([1.0, 1.0], 'd' ) )
print type(kernel)
print type(imgBgs)
bgs32=ImgPlus( ops.create( dimensions2D, FloatType()) )
ops.convert(bgs32, imgBgs, ConvertPixCopy() )
log = ops.convolve(ops.create( dimensions2D, FloatType()), bgs32, kernel)