Exemplo n.º 1
0
def main(argv):
    """Register the slices in a stack."""

    source_dir = 'SOURCE_DIR/'
    target_dir = 'TARGET_DIR/'
    transf_dir = 'TARGET_DIR/trans/'
    reference_name = 'REFNAME'

    use_shrinking_constraint = 0
    p = Register_Virtual_Stack_MT.Param()
    p.sift.maxOctaveSize = 1024
    p.minInlierRatio = 0.05
    Register_Virtual_Stack_MT.exec(source_dir, target_dir, transf_dir,
                                   reference_name, p, use_shrinking_constraint)
Exemplo n.º 2
0
def Composite_Aligner(channels, dirs, parameters):
    """ Aligns composite images, saves to directory. """
		
    # Reference image name (must be within source directory)	
    reference_name = "Timepoint000.tif"
		
    # Shrinkage option (False = 0)
    if parameters["shrinkage"] == "True":
        use_shrinking_constraint = 1
        print "shrink"
    else:
        use_shrinking_constraint = 0
        print "noshrink"

    # Parameters method, RVSS
    p = Register_Virtual_Stack_MT.Param()
		
    # SIFT parameters:
    # python cannot coerce string "floats" to int directly,
    # hence int(float("1.0")) (RVSS wants ints..).
    p.sift.maxOctaveSize = int(float(parameters["max_oct"]))
    p.sift.fdSize = int(float(parameters["fd_size"]))
    p.sift.initialSigma = int(float(parameters["sigma"]))
    p.maxEpsilon = int(float(parameters["max_eps"]))
    p.sift.steps = int(float(parameters["steps"]))
    p.minInlierRatio = int(float(parameters["min_inlier"]))
	
    # 1 = RIGID, 3 = AFFINE
    p.featuresModelIndex = int(float(parameters["feat_model"]))
    p.registrationModelIndex = int(float(parameters["reg_model"]))

    # Opens a dialog to set transformation options, comment out to run in default mode
    #IJ.beep()
    #p.showDialog()	

    # Executes alignment.
    print ("Registering stack...")
	
    reference_name = "Timepoint000.tif"
    Register_Virtual_Stack_MT.exec(dirs["Composites"] + os.sep, 
	                               dirs["Composites_Aligned"] + os.sep,
	                               dirs["Transformations"] + os.sep,
	                               reference_name, p, use_shrinking_constraint)

    print ("Registration completed.")
    # Close alignment window.
    imp = WindowManager.getCurrentImage()
    imp.close()
Exemplo n.º 3
0
def rigidAlignment(projectPath, params, name = '', boxFactor = 1):
	# rigid alignment outside trakem2 with register virtual stack plugin because bug in trakem2
	projectFolder = os.path.dirname(projectPath)
	projectName = os.path.splitext(os.path.basename(projectPath))[0]
	project, loader, layerset, nLayers = openTrakemProject(projectPath)

	exportForRigidAlignmentFolder = mkdir_p(os.path.join(projectFolder, 'exportForRigidAlignment'))
	resultRigidAlignmentFolder = mkdir_p(os.path.join(projectFolder, 'resultRigidAlignment'))
	
	bb = layerset.get2DBounds()	
	roi = Rectangle(int(bb.width/2 * (1 - boxFactor)), int(bb.height/2 * (1 - boxFactor)), int(bb.width*boxFactor), int(bb.height*boxFactor))	
	boxPath = os.path.join(resultRigidAlignmentFolder, 'alignmentBox.txt')
	writeRectangle(roi, boxPath)

	exportFlat(project, exportForRigidAlignmentFolder, 1, baseName = 'exportForRigidAlignment', roi = roi)

	referenceName = naturalSort(os.listdir(exportForRigidAlignmentFolder))[0]
	use_shrinking_constraint = 0
	IJ.log('Rigid alignment with register virtual stack')
	Register_Virtual_Stack_MT.exec(exportForRigidAlignmentFolder, resultRigidAlignmentFolder, resultRigidAlignmentFolder, referenceName, params, use_shrinking_constraint)
	time.sleep(2)
	IJ.log('Warning: rigidAlignment closing all existing windows')
	WindowManager.closeAllWindows() # problematic because it also closes the log window
	
	# IJ.getImage().close()

	for l, layer in enumerate(layerset.getLayers()):
		imagePath = os.path.join(exportForRigidAlignmentFolder, 'exportForRigidAlignment_' + str(l).zfill(4) + '.tif')
		transformPath = os.path.join(resultRigidAlignmentFolder, 'exportForRigidAlignment_' + str(l).zfill(4) + '.xml')
		aff = getAffFromRVSTransformPath(transformPath)

		for patch in layer.getDisplayables(Patch):
			patch.setLocation(patch.getX()-roi.x, patch.getY()-roi.y) # compensate for the extracted bounding box
			# patch.setLocation(roi.x, roi.y) # compensate for the extracted bounding box
			currentAff = patch.getAffineTransform()
			currentAff.preConcatenate(aff)
			patch.setAffineTransform(currentAff)

	resizeDisplay(layerset)
	project.save()
	closeProject(project)
	IJ.log('All LM layers have been aligned in: ' + projectPath)
    def runVirtualAlignment(self):
        IJ.log("Function runVirtualAlignment on " + self.inputFolder)
        refImage = None
        for (DAPIFile, fluoFiles) in self.imageFiles:
            copyfile(DAPIFile,
                     self.inputDAPIFolder + os.path.basename(DAPIFile))
            for fluoFile in fluoFiles:
                copyfile(fluoFile,
                         self.inputFluoFolder + os.path.basename(fluoFile))
            if refImage is None:
                refImage = os.path.basename(self.inputDAPIFolder +
                                            os.path.basename(DAPIFile))

        p = Register_Virtual_Stack_MT.Param()
        use_shrinking_constraint = self.useShrinking

        IJ.log("Registering DAPI")
        Register_Virtual_Stack_MT.exec(self.inputDAPIFolder,
                                       self.outputDAPIFolder,
                                       self.outputDAPIFolder, refImage, p,
                                       use_shrinking_constraint)

        IJ.log("Copying DAPI transformation matrices to Fluo folder")
        for (DAPIFile, fluoFiles) in self.imageFiles:
            for fluoFile in fluoFiles:
                copyfile(
                    self.outputDAPIFolder +
                    os.path.basename(DAPIFile).replace(".tif", ".xml"),
                    self.outputFluoFolder +
                    os.path.basename(fluoFile).replace(".tif", ".xml"))

        use_interpolate = self.useInterpolate
        IJ.log("Registering Fluo based on DAPI transformations")
        Transform_Virtual_Stack_MT.exec(self.inputFluoFolder,
                                        self.outputFluoFolder,
                                        self.outputFluoFolder, use_interpolate)

        self.displayStack()
Exemplo n.º 5
0
from register_virtual_stack import Register_Virtual_Stack_MT

namePlugin = 'alignRigid_LM'
MagCFolder = fc.startPlugin(namePlugin)
ControlWindow.setGUIEnabled(False)

# get mosaic size
MagCParameters = fc.readMagCParameters(MagCFolder)
executeAlignment = MagCParameters[namePlugin]['executeAlignment']
boxFactor = MagCParameters[namePlugin]['boxFactor'] # e.g. 0.5, use only the center part of the layer to compute alignment: 0.5 divides the x and y dimensions by 2

projectPath = fc.findFilesFromTags(MagCFolder,['LMProject'])[0]

# alignment parameters
regParams = Register_Virtual_Stack_MT.Param()
regParams.minInlierRatio = 0
regParams.registrationModelIndex = 1
regParams.featuresModelIndex = 1

regParams.sift.fdBins = 8
regParams.sift.fdSize = 4
regParams.sift.initialSigma = 1.6
regParams.sift.maxOctaveSize = 1024
regParams.sift.minOctaveSize = 64
regParams.sift.steps = 6

regParams.interpolate = True
regParams.maxEpsilon = 25
regParams.minInlierRatio = 0
regParams.rod = 0.92
Exemplo n.º 6
0
		for c in range(1,(xdim+1)):
			cs= str(c)
                           # source directory
			source_dir = ISanalysisfolder + "%04d" % i + "/aligned/conv_561adj/c_" + cs + "/"
                          # output directory
			
                          # transforms directory
			transf_dir = ISanalysisfolder + "%04d" % i + "/aligned/conv_561adj/c_" + cs + "/"
                          # reference image
			file = (glob.glob(source_dir + "*" + ".tif"))
			print >>f1, os.path.basename(file[0])
			reference_name = os.path.basename(file[0])
			# shrinkage option (false)
			use_shrinking_constraint = 0
       
			p = Register_Virtual_Stack_MT.Param()
			p.featuresModelIndex = 0
			p.registrationModelIndex = 0
			p.interpolate = 1
			p.maxEpsilon = 25
			# The "maximum image size":
			p.sift.maxOctaveSize = 400
			p.sift.fdBins = 8
			p.sift.fdSize = 8
			p.sift.initialSigma = 1.0
			p.sift.steps = 6
			p.sift.minOctaveSize  = 64
			# The "inlier ratio":
			p.minInlierRatio = 0.03

               		iterat = 0
Exemplo n.º 7
0
## script to run Register_Virtual_Stack as CLI based on http://imagej.net/Register_Virtual_Stack_Slices#Scripting_.2F_PlugIn

import sys       # to get command line args
# import argparse  # fiji's jython does not have argparse: https://ilovesymposia.com/2014/02/26/fiji-jython/

from register_virtual_stack import Register_Virtual_Stack_MT

argv = sys.argv

# shrinkage option (false)
use_shrinking_constraint = 0

## http://javadoc.imagej.net/Fiji/register_virtual_stack/Register_Virtual_Stack_MT.html
p = Register_Virtual_Stack_MT.Param()
# p.sift.maxOctaveSize = 1024 # The "maximum image size"
# p.minInlierRatio = 0.05 # The "inlier ratio"
p.featuresModelIndex = Register_Virtual_Stack_MT.RIGID # 0=TRANSLATION, 1=RIGID, 2=SIMILARITY, 3=AFFINE
p.registrationModelIndex = Register_Virtual_Stack_MT.RIGID # 0=TRANSLATION, 1=RIGID, 2=SIMILARITY, 3=AFFINE, 4=ELASTIC, 5=MOVING_LEAST_SQUARES


Register_Virtual_Stack_MT.save_transforms= True
Register_Virtual_Stack_MT.exec(argv[1], argv[2], argv[3], argv[4], p, use_shrinking_constraint)
Exemplo n.º 8
0
                              format='tiff')

featuremodelindex = ["Translation", "Rigid", "Similarity", "Affine"]

regmodelindex = [
    "Translation", "Rigid", "Similarity", "Affine", "Elastic",
    "Moving Least Squares"
]

fmi = featuremodelindex.index(fmodelstring)
rmi = regmodelindex.index(rmodelstring)

# shrinkage option (false)
use_shrinking_constraint = False

p = Register_Virtual_Stack_MT.Param()

# inlier ratio
p.minInlierRatio = 0.05
# implemented transformation models for choice 0=TRANSLATION, 1=RIGID, 2=SIMILARITY, 3=AFFINE
#p.featuresModelIndex = 3
p.featuresModelIndex = fmi
# maximal allowed alignment error in pixels
p.maxEpsilon = 10
# Implemented transformation models for choice 0=TRANSLATION, 1=RIGID, 2=SIMILARITY, 3=AFFINE, 4=ELASTIC, 5=MOVING_LEAST_SQUARES
#p.registrationModelIndex = 3
p.registrationModelIndex = rmi
# Closest/next neighbor distance ratio
p.rod = 0.9

#############    bunwarpJ Parameters   #########
Exemplo n.º 9
0
namePlugin = 'alignRigid_EM'
MagCFolder = fc.startPlugin(namePlugin)
ControlWindow.setGUIEnabled(False)
MagC_EM_Folder = os.path.join(MagCFolder, 'MagC_EM', '')
MagCParameters = fc.readMagCParameters(MagCFolder)

regModel = MagCParameters[namePlugin]['regModel']
inputFolder = fc.findFoldersFromTags(MagCFolder,
                                     ['export_stitchedEMForAlignment'])[0]
imagePaths = filter(
    lambda x: os.path.splitext(x)[1] == '.tif',
    fc.naturalSort(
        [os.path.join(inputFolder, x) for x in os.listdir(inputFolder)]))

regParams = Register_Virtual_Stack_MT.Param()
regParams.minInlierRatio = 0
regParams.registrationModelIndex = regModel  # 1-Rigid, 2-Similarity, 3-Affine
regParams.featuresModelIndex = regModel

exportForRigidAlignmentFolder = inputFolder
resultRigidAlignmentFolder = fc.mkdir_p(
    os.path.join(MagC_EM_Folder, 'resultRigidAlignment'))

################################################
# rigid alignment outside trakem2 with register virtual stack plugin because bug in trakem2
transformsPath = os.path.join(
    MagC_EM_Folder, 'rigidAlignmentTransforms_' + namePlugin + '.txt')
referenceName = fc.naturalSort(os.listdir(exportForRigidAlignmentFolder))[0]
use_shrinking_constraint = 0
from register_virtual_stack import Register_Virtual_Stack_MT
 
# source directory
source_dir = "C:\\Users\\stoeter\\Documents\\Temp\\sequence_GreinerGlassPlate_GSP_500nm_beads_H12_T0001F001_raw_xx_plane6\\"
# output directory
target_dir = "C:\\Users\\stoeter\\Documents\\Temp\\result\\"
# transforms directory
transf_dir = "C:\\Users\\stoeter\\Documents\\Temp\\transform\\"
# reference image
reference_name = "GreinerGlassPlate_GSP_500nm_beads_H12_T0001F001_raw_01_plane6.tif"
# shrinkage option (false)
use_shrinking_constraint = 0
 
p = Register_Virtual_Stack_MT.Param()
# The "maximum image size":
p.sift.maxOctaveSize = 2800
# The "inlier ratio":
p.minInlierRatio = 0.05
# Implemented transformation models for choice
# 0=TRANSLATION, 1=RIGID, 2=SIMILARITY, 3=AFFINE, 4=ELASTIC, 5=MOVING_LEAST_SQUARES
p.registrationModelIndex = 3
# Implemented transformation models for choice
# 0=TRANSLATION, 1=RIGID, 2=SIMILARITY, 3=AFFINE
p.featuresModelIndex = 3 
 
Register_Virtual_Stack_MT.exec(source_dir, target_dir, transf_dir, reference_name, p, use_shrinking_constraint)