def track_features(self, timeholder, visitor_data, channel_regions,
position, outdir):
shutil.rmtree(outdir, True)
makedirs(outdir)
for tracks in visitor_data.itervalues():
for startid, event_data in tracks.iteritems():
if startid in ('_full_tracks', '_current_branch'):
continue
for chname, region in channel_regions.iteritems():
for region_name, feature_names in region.iteritems():
try:
frame, obj_label, branch = Tracker.split_nodeid(
startid)
except ValueError:
frame, obj_label = Tracker.split_nodeid(startid)
branch = 1
filename = 'features__P%s__T%05d__O%04d__B%02d__C%s__R%s.txt' \
%(position, frame, obj_label, branch, chname, region_name)
filename = join(outdir, filename)
self._data_per_channel(timeholder, event_data,
filename, chname, region_name,
feature_names, position)
def full_tracks(self, timeholder, visitor_data, position, outdir):
shutil.rmtree(outdir, True)
makedirs(outdir)
for start_id, data in visitor_data.iteritems():
for idx, track in enumerate(data['_full']):
has_header = False
line1 = []
line2 = []
line3 = []
frame, obj_label= Tracker.split_nodeid(start_id)[:2]
filename = 'P%s__T%05d__O%04d__B%02d.txt' \
%(position, frame, obj_label, idx+1)
f = file(join(outdir, filename), 'w')
for node_id in track:
frame, obj_id = Tracker.split_nodeid(node_id)
coordinate = Coordinate(position=position, time=frame)
prefix = [frame, self.meta_data.get_timestamp_relative(coordinate), obj_id]
prefix_names = ['frame', 'time', 'objID']
items = []
for channel in timeholder[frame].values():
for region_id in channel.region_names():
region = channel.get_region(region_id)
if obj_id in region:
flkp = self._map_feature_names(region.feature_names)
if not has_header:
keys = ['classLabel', 'className']
if channel.NAME == 'Primary':
keys += ['centerX', 'centerY']
keys += flkp.keys()
line1 += [channel.NAME.upper()] * len(keys)
line2 += [str(region_id)] * len(keys)
line3 += keys
obj = region[obj_id]
features = region.features_by_name(obj_id, flkp.values())
values = [x if not x is None else '' for x in [obj.iLabel, obj.strClassName]]
if channel.NAME == 'Primary':
values += [obj.oCenterAbs[0], obj.oCenterAbs[1]]
values += list(features)
items.extend(values)
if not has_header:
has_header = True
prefix_str = [''] * len(prefix)
line1 = prefix_str + line1
line2 = prefix_str + line2
line3 = prefix_names + line3
f.write('%s\n' %CSVParams.sep.join(line1))
f.write('%s\n' %CSVParams.sep.join(line2))
f.write('%s\n' %CSVParams.sep.join(line3))
f.write('%s\n' %CSVParams.sep.join([str(i) for i in prefix + items]))
f.close()
def start_nodes(self):
"""Return all start nodes i.e. nodes without incoming edges."""
start_nodes = [
node_id for node_id in self.graph.node_list()
if self.graph.in_degree(node_id) == 0
]
start_nodes.sort(key=lambda x: Tracker.split_nodeid(x)[0])
return start_nodes
def track_features(self, timeholder, visitor_data, channel_regions,
position, outdir):
shutil.rmtree(outdir, True)
makedirs(outdir)
for tracks in visitor_data.itervalues():
for startid, event_data in tracks.iteritems():
if startid.startswith('_'):
continue
for chname, region in channel_regions.iteritems():
for region_name, feature_names in region.iteritems():
try:
frame, obj_label, branch = Tracker.split_nodeid(startid)
except ValueError:
frame, obj_label = Tracker.split_nodeid(startid)
branch = 1
filename = 'features_P%s_T%05d_O%04d_B%02d_C%s_R%s.txt' \
%(position, frame, obj_label, branch, chname, region_name)
filename = join(outdir, filename)
self._data_per_channel(timeholder, event_data, filename, chname,
region_name, feature_names, position)
def centers(self):
"""Return the a list of the object centers for each track."""
centers = dict()
for startid, eventdata in self.iterevents():
if startid in ['_full_tracks', '_current_branch']:
continue
data = list()
for nodeids in zip(*eventdata['tracks']):
for nodeid in nodeids:
obj = self.graph.node_data(nodeid)
frame = Tracker.split_nodeid(nodeid)[0]
data.append((int(frame), obj.iId, obj.oCenterAbs))
centers[startid] = data
return centers
def centers(self):
"""Return the a list of the object centers for each track."""
centers = dict()
for startid, eventdata in self.iterevents():
if startid in ['_full_tracks', '_current_branch']:
continue
data = list()
for nodeids in zip(*eventdata['tracks']):
for nodeid in nodeids:
obj = self.graph.node_data(nodeid)
frame = Tracker.split_nodeid(nodeid)[0]
data.append((int(frame), obj.iId, obj.oCenterAbs))
centers[startid] = data
return centers
def bboxes(self, size=None, border=0):
bboxes = {}
for startid, eventdata in self.iterevents():
if startid in ['_full', '_current']:
continue
data = []
for nodeids in zip(*eventdata['tracks']):
nodeid = nodeids[0]
frame = Tracker.split_nodeid(nodeid)[0]
objids = [Tracker.split_nodeid(n)[1] for n in nodeids]
objects = [self.graph.node_data(n) for n in nodeids]
minX = min([obj.oRoi.upperLeft[0] for obj in objects])
minY = min([obj.oRoi.upperLeft[1] for obj in objects])
maxX = max([obj.oRoi.lowerRight[0] for obj in objects])
maxY = max([obj.oRoi.lowerRight[1] for obj in objects])
width = maxX - minX + 1
height = maxY - minY + 1
centerX = int(
round(np.average([obj.oCenterAbs[0] for obj in objects])))
centerY = int(
round(np.average([obj.oCenterAbs[1] for obj in objects])))
data.append((frame, centerX, centerY, width, height, objids))
data1 = np.array(data, 'O')
if not size is None and len(size) == 2:
diffX = int(size[0] / 2)
diffY = int(size[1] / 2)
else:
diffX = int(max(data1[:, 3]) / 2 + border)
diffY = int(max(data1[:, 4]) / 2 + border)
# convert to float to for numpy float64 type
timedata = [(int(d[0]), (d[1] - diffX, d[2] - diffY,
d[1] + diffX - 1 + size[0] % 2,
d[2] + diffY - 1 + size[1] % 2), d[5])
for d in data1]
bboxes[startid] = timedata
return bboxes
def bboxes(self, size=None, border=0):
bboxes = {}
for startid, eventdata in self.iterevents():
if startid in ['_full', '_current']:
continue
data = []
for nodeids in zip(*eventdata['tracks']):
nodeid = nodeids[0]
frame = Tracker.split_nodeid(nodeid)[0]
objids = [Tracker.split_nodeid(n)[1] for n in nodeids]
objects = [self.graph.node_data(n) for n in nodeids]
minX = min([obj.oRoi.upperLeft[0] for obj in objects])
minY = min([obj.oRoi.upperLeft[1] for obj in objects])
maxX = max([obj.oRoi.lowerRight[0] for obj in objects])
maxY = max([obj.oRoi.lowerRight[1] for obj in objects])
width = maxX - minX + 1
height = maxY - minY + 1
centerX = int(round(np.average([obj.oCenterAbs[0] for obj in objects])))
centerY = int(round(np.average([obj.oCenterAbs[1] for obj in objects])))
data.append((frame, centerX, centerY, width, height, objids))
data1 = np.array(data, 'O')
if not size is None and len(size) == 2:
diffX = int(size[0] / 2)
diffY = int(size[1] / 2)
else:
diffX = int(max(data1[:,3])/2 + border)
diffY = int(max(data1[:,4])/2 + border)
# convert to float to for numpy float64 type
timedata = [(int(d[0]),
(d[1] - diffX,
d[2] - diffY,
d[1] + diffX - 1 + size[0] %2,
d[2] + diffY - 1 + size[1] %2),
d[5]) for d in data1]
bboxes[startid] = timedata
return bboxes
def _data_per_channel(self, timeholder, event_data, filename, channel_name, region_name,
feature_names, position):
eventid = event_data['eventId']
event_frame, _ = Tracker.split_nodeid(eventid)
has_split = 'splitId' in event_data
header_names = ['Frame', 'Timestamp', 'isEvent']
if has_split:
header_names.append('isSplit')
if event_data['splitId'] is not None:
split_frame, _ = Tracker.split_nodeid(event_data['splitId'])
else:
split_frame = None
table = []
# zip nodes with same time together
for nodeids in zip(*event_data['tracks']):
objids = []
frame = None
for nodeid in nodeids:
node_frame, objid = Tracker.split_nodeid(nodeid)
if frame is None:
frame = node_frame
else:
assert frame == node_frame
objids.append(objid)
channel = timeholder[frame][channel_name]
sample_holder = channel.get_region(region_name)
if feature_names is None:
feature_names = sample_holder.feature_names
if CSVParams.objId not in header_names:
# setup header line
header_names.append(CSVParams.objId)
header_names += [CSVParams.class_ %x for x in ['name', 'label', 'probability']]
# only feature_names scales according to settings
header_names += [CSVParams.feature %fn for fn in feature_names]
header_names += [CSVParams.tracking %tf for tf in CSVParams.tracking_features]
coordinate = Coordinate(position=position, time=frame)
data = {'Frame' : frame,
'Timestamp': self.meta_data.get_timestamp_relative(coordinate),
'isEvent': int(frame==event_frame)}
if has_split:
data['isSplit'] = int(frame==split_frame)
#for iIdx, iObjId in enumerate(lstObjectIds):
objid = objids[0]
if objid in sample_holder:
sample = sample_holder[objid]
data[CSVParams.objId] = objid
# classification data
if sample.iLabel is not None:
data[CSVParams.class_ %'label'] = sample.iLabel
data[CSVParams.class_ %'name'] = sample.strClassName
data[CSVParams.class_ %'probability'] = \
','.join(['%d:%.5f' % (int(x),y) for x,y in sample.dctProb.iteritems()])
common_ftr = [f for f in set(sample_holder.feature_names).intersection(feature_names)]
features = sample_holder.features_by_name(objid, common_ftr)
for feature, fname in zip(features, common_ftr):
data[CSVParams.feature %fname] = feature
# features not calculated are exported as NAN
diff_ftr = [f for f in set(feature_names).difference(sample_holder.feature_names)]
for df in diff_ftr:
data[CSVParams.feature %df] = float("NAN")
# object tracking data (absolute center)
data[CSVParams.tracking %'center_x'] = sample.oCenterAbs[0]
data[CSVParams.tracking %'center_y'] = sample.oCenterAbs[1]
data[CSVParams.tracking %'upperleft_x'] = sample.oRoi.upperLeft[0]
data[CSVParams.tracking %'upperleft_y'] = sample.oRoi.upperLeft[1]
data[CSVParams.tracking %'lowerright_x'] = sample.oRoi.lowerRight[0]
data[CSVParams.tracking %'lowerright_y'] = sample.oRoi.lowerRight[1]
else:
# we rather skip the entire event in case the object ID is not valid
return
table.append(data)
if len(table) > 0:
with open(filename, 'w') as fp:
writer = csv.DictWriter(fp, fieldnames=header_names,
delimiter=CSVParams.sep)
writer.writeheader()
writer.writerows(table)
def __init__(self, eventselector, strPathIn, oP, strPathOut,
imageCompression="85",
imageSuffix=".jpg",
border=0,
writeSubdirs=True,
writeDescription=True,
size=None,
oneFilePerTrack=False):
self._bHasImages = False
dctTimePoints = {}
for strStartId, lstTimeData in eventselector.bboxes( \
size=size, border=border).iteritems():
items = Tracker.split_nodeid(strStartId)
iStartT, iObjId = items[:2]
if len(items) == 3:
branch_id = items[2]
else:
branch_id = 1
if writeSubdirs:
strPathOutEvent = os.path.join(strPathOut,
self._format_name(oP, iStartT, iObjId, branch_id))
else:
strPathOutEvent = strPathOut
makedirs(strPathOutEvent)
if writeDescription:
oFile = file(os.path.join(strPathOutEvent,
"_%s.txt" % self._format_name(oP, iStartT, iObjId, branch_id)), "w")
lstData = ["Frame", "ObjId", "x1", "y1", "x2", "y2"]
oFile.write("%s\n" % "\t".join(map(str, lstData)))
for iCnt, (iT, tplBoundingBox, lstObjIds) in enumerate(lstTimeData):
if writeDescription:
lstData = [iT, ';'.join(map(str, lstObjIds))] + list(tplBoundingBox)
oFile.write("%s\n" % "\t".join(map(str, lstData)))
if not iT in dctTimePoints:
dctTimePoints[iT] = []
dctTimePoints[iT].append((strStartId, lstObjIds, iCnt, strPathOutEvent, tplBoundingBox))
if writeDescription:
oFile.close()
for idx, (iT, lstItems) in enumerate(dctTimePoints.iteritems()):
#print iT, lstItems
imgXY = self._getImage(strPathIn, iT)
for strStartId, lstObjIds, iCnt, strPathOutEvent, tplBoundingBox in lstItems:
x1, y1, x2, y2 = tplBoundingBox
x1Corr = 0 if x1 < 0 else x1
y1Corr = 0 if y1 < 0 else y1
x2Corr = imgXY.width-1 if x2 >= imgXY.width else x2
y2Corr = imgXY.height-1 if y2 >= imgXY.height else y2
imgSub = ccore.subImage(imgXY,
ccore.Diff2D(x1Corr, y1Corr),
ccore.Diff2D(x2Corr-x1Corr+1, y2Corr-y1Corr+1))
if (x1 < 0 or y1 < 0 or
x2 >= imgXY.width or y2 >= imgXY.height):
imgSub2 = self.IMAGE_CLASS(size[0], size[1])
ccore.copySubImage(imgSub, imgSub2, ccore.Diff2D(x1Corr-x1, y1Corr-y1))
imgSub = imgSub2
assert imgSub.width == size[0]
assert imgSub.width == x2-x1+1
assert imgSub.height == size[1]
assert imgSub.height == y2-y1+1
if self.PROCESS_LABEL:
lstImages = []
for iObjId in lstObjIds:
lstImages.append(ccore.copyImageIfLabel(imgSub, imgSub, iObjId))
imgSub = ccore.projectImage(lstImages, ccore.ProjectionType.MaxProjection)
strFilenameImage = os.path.join(strPathOutEvent, "P%s__T%05d%s" % (oP, iT, imageSuffix))
ccore.writeImage(imgSub, strFilenameImage)
if oneFilePerTrack and os.path.isdir(strPathOut):
self.convertToOneFilePerTrack(strPathOut, imageCompression)
def start_nodes(self):
"""Return all start nodes i.e. nodes without incoming edges."""
start_nodes = [node_id for node_id in self.graph.node_list()
if self.graph.in_degree(node_id) == 0]
start_nodes.sort(key=lambda x: Tracker.split_nodeid(x)[0])
return start_nodes
def __call__(self):
thread = QThread.currentThread()
well, site = self._posinfo()
self.timeholder = TimeHolder(self.position, self._all_channel_regions,
self.datafile, self.meta_data,
self.settings, self._frames,
self.plate_id, well, site,
**self._hdf_options)
self.settings.set_section('Tracking')
self.setup_classifiers()
# setup tracker
if self.settings('Processing', 'tracking'):
tropts = (self.settings('Tracking', 'tracking_maxobjectdistance'),
self.settings('Tracking', 'tracking_maxsplitobjects'),
self.settings('Tracking', 'tracking_maxtrackinggap'))
self._tracker = Tracker(*tropts)
stopwatch = StopWatch(start=True)
ca = CellAnalyzer(timeholder=self.timeholder,
position=self.position,
create_images=True,
binning_factor=1,
detect_objects=self.settings('Processing',
'objectdetection'))
self.export_features = self.define_exp_features()
self._analyze(ca)
# invoke event selection
if self.settings('Processing', 'eventselection') and \
self.settings('Processing', 'tracking'):
evchannel = self.settings('EventSelection', 'eventchannel')
region = self.classifiers[evchannel].regions
if evchannel != PrimaryChannel.NAME or region != self.settings(
"Tracking", "region"):
graph = self._tracker.clone_graph(self.timeholder, evchannel,
region)
else:
graph = self._tracker.graph
self._tes = self.setup_eventselection(graph)
self.logger.info("Event detection")
self._tes.find_events()
if self.isAborted():
return 0 # number of processed images
# save all the data of the position, no aborts from here on
# want all processed data saved
if self.settings('Processing', 'tracking'):
self.statusUpdate(text="Saving Tracking Data to cellh5...")
self.save_tracks()
if self.settings('Output', 'hdf5_include_events') and \
self.settings('Processing', "eventselection"):
self.statusUpdate(text="Saving Event Data to cellh5...")
self.save_events()
self.save_classification()
self.timeholder.purge()
try:
n = len(self._frames)
intval = stopwatch.stop() / n * 1000
except ZeroDivisionError:
pass
else:
self.logger.info("%d images analyzed, %3d ms per image set" %
(n, intval))
self.clear()
if isfile(self.datafile):
with Ch5File(self.datafile, mode="r+") as ch5:
ch5.savePlateLayout(self.layout, self.plate_id)
def _split_nodeid(self, nodeid):
ret = Tracker.split_nodeid(nodeid)
if len(ret) == 2:
ret = ret + (1, )
return ret
class PositionAnalyzer(PositionCore):
def __init__(self, *args, **kw):
super(PositionAnalyzer, self).__init__(*args, **kw)
if not self.has_timelapse:
self.settings.set('Processing', 'tracking', False)
self._makedirs()
self.add_file_handler(join(self._log_dir, "%s.log" % self.position),
self._lvl.DEBUG)
def _makedirs(self):
assert isinstance(self.position, basestring)
assert isinstance(self._out_dir, basestring)
self._analyzed_dir = join(self._out_dir, "analyzed")
if self.has_timelapse:
self._position_dir = join(self._analyzed_dir, self.position)
else:
self._position_dir = self._analyzed_dir
odirs = (self._analyzed_dir, join(self._out_dir, "log"),
join(self._out_dir, "log",
"_finished"), join(self._out_dir,
"hdf5"), join(self._out_dir, "plots"),
join(self._position_dir,
"statistics"), join(self._position_dir, "gallery"),
join(self._position_dir,
"channel_gallery"), join(self._position_dir, "images"),
join(self._position_dir, "images", "_labels"))
for odir in odirs:
try:
makedirs(odir)
except os.error: # no permissions
self.logger.error("mkdir %s: failed" % odir)
else:
self.logger.info("mkdir %s: ok" % odir)
setattr(self, "_%s_dir" % basename(odir.lower()).strip("_"), odir)
def setup_classifiers(self):
sttg = self.settings
# processing channel, color channel
for p_channel, c_channel in self.ch_mapping.iteritems():
self.settings.set_section('Processing')
if sttg.get2(self._resolve_name(p_channel, 'classification')):
sttg.set_section('Classification')
clf = CommonClassPredictor(
clf_dir=sttg.get2(
self._resolve_name(p_channel,
'classification_envpath')),
name=p_channel,
channels=self._channel_regions(p_channel),
color_channel=c_channel)
clf.importFromArff()
clf.loadClassifier()
self.classifiers[p_channel] = clf
def _convert_tracking_duration(self, option_name):
"""Converts a tracking duration according to the unit and the
mean time-lapse of the current position.
Returns number of frames.
"""
value = self.settings.get(SECTION_NAME_TRACKING, option_name)
unit = self.settings.get(SECTION_NAME_TRACKING,
'tracking_duration_unit')
# get mean and stddev for the current position
info = self.meta_data.get_timestamp_info(self.position)
if unit == TRACKING_DURATION_UNIT_FRAMES or info is None:
result = value
elif unit == TRACKING_DURATION_UNIT_MINUTES:
result = (value * 60.) / info[0]
elif unit == TRACKING_DURATION_UNIT_SECONDS:
result = value / info[0]
else:
raise ValueError("Wrong unit '%s' specified." % unit)
return int(round(result))
@property
def _es_options(self):
transitions = eval(self.settings.get2('tracking_labeltransitions'))
if not isinstance(transitions[0], tuple):
transitions = (transitions, )
evopts = {
'transitions':
transitions,
'backward_labels':
map(int,
self.settings.get2('tracking_backwardlabels').split(',')),
'forward_labels':
map(int,
self.settings.get2('tracking_forwardlabels').split(',')),
'backward_check':
self._convert_tracking_duration('tracking_backwardCheck'),
'forward_check':
self._convert_tracking_duration('tracking_forwardCheck'),
'backward_range':
self._convert_tracking_duration('tracking_backwardrange'),
'forward_range':
self._convert_tracking_duration('tracking_forwardrange'),
'backward_range_min':
self.settings.get2('tracking_backwardrange_min'),
'forward_range_min':
self.settings.get2('tracking_forwardrange_min'),
'max_in_degree':
self.settings.get2('tracking_maxindegree'),
'max_out_degree':
self.settings.get2('tracking_maxoutdegree')
}
return evopts
def define_exp_features(self):
features = {}
for name in self.processing_channels:
region_features = {}
for region in REGION_INFO.names[name.lower()]:
# export all features extracted per regions
if self.settings.get('Output', 'events_export_all_features') or \
self.settings.get('Output', 'export_track_data'):
# None means all features
region_features[region] = None
# export selected features from settings
else:
region_features[region] = \
self.settings.get('General',
'%s_featureextraction_exportfeaturenames'
% name.lower())
features[name] = region_features
return features
def export_object_counts(self):
fname = join(self._statistics_dir,
'P%s__object_counts.txt' % self.position)
# at least the total count for primary is always exported
ch_info = OrderedDict([('Primary', ('primary', [], []))])
for name, clf in self.classifiers.iteritems():
names = clf.class_names.values()
colors = [clf.hexcolors[n] for n in names]
ch_info[name] = (clf.regions, names, colors)
self.timeholder.exportObjectCounts(fname, self.position,
self.meta_data, ch_info)
pplot_ymax = \
self.settings.get('Output', 'export_object_counts_ylim_max')
# plot only for primary channel so far!
self.timeholder.exportPopulationPlots(fname, self._plots_dir,
self.position, self.meta_data,
ch_info['Primary'], pplot_ymax)
def export_object_details(self):
fname = join(self._statistics_dir,
'P%s__object_details.txt' % self.position)
self.timeholder.exportObjectDetails(fname, excel_style=False)
fname = join(self._statistics_dir,
'P%s__object_details_excel.txt' % self.position)
self.timeholder.exportObjectDetails(fname, excel_style=True)
def export_image_names(self):
self.timeholder.exportImageFileNames(self._statistics_dir,
self.position,
self._imagecontainer._importer,
self.ch_mapping)
def export_full_tracks(self):
odir = join(self._statistics_dir, 'full')
exporter = EventExporter(self.meta_data)
exporter.full_tracks(self.timeholder, self._tes.visitor_data,
self.position, odir)
def export_graphviz(self, channel_name='Primary', region_name='primary'):
filename = 'tracking_graph___P%s.dot' % self.position
exporter = TrackExporter()
exporter.graphviz_dot(join(self._statistics_dir, filename),
self._tracker)
sample_holders = OrderedDict()
for frame in self.timeholder.keys():
channel = self.timeholder[frame][channel_name]
sample_holders[frame] = channel.get_region(region_name)
filename = join(self._statistics_dir,
filename.replace('.dot', '_features.csv'))
exporter.tracking_data(filename, sample_holders)
def export_gallery_images(self):
for ch_name in self.processing_channels:
cutter_in = join(self._images_dir, ch_name)
if isdir(cutter_in):
cutter_out = join(self._gallery_dir, ch_name)
self.logger.info("running Cutter for '%s'..." % ch_name)
image_size = \
self.settings.get('Output', 'events_gallery_image_size')
EventGallery(self._tes,
cutter_in,
self.position,
cutter_out,
self.meta_data,
oneFilePerTrack=True,
size=(image_size, image_size))
# FIXME: be careful here. normally only raw images are
# used for the cutter and can be deleted
# afterwards
shutil.rmtree(cutter_in, ignore_errors=True)
def export_tracks_hdf5(self):
"""Save tracking data to hdf file"""
self.logger.debug("--- serializing tracking start")
self.timeholder.serialize_tracking(self._tes.graph)
self.logger.debug("--- serializing tracking ok")
def export_events(self):
"""Export and save event selceciton data"""
exporter = EventExporter(self.meta_data)
# writes to the event folder
odir = join(self._statistics_dir, "events")
exporter.track_features(self.timeholder, self._tes.visitor_data,
self.export_features, self.position, odir)
self.logger.debug("--- visitor analysis ok")
# writes event data to hdf5
self.timeholder.serialize_events(self._tes)
self.logger.debug("--- serializing events ok")
def __call__(self):
# include hdf5 file name in hdf5_options
# perhaps timeholder might be a good placke to read out the options
# fils must not exist to proceed
hdf5_fname = join(self._hdf5_dir, '%s.ch5' % self.position)
self.timeholder = TimeHolder(self.position, self._all_channel_regions,
hdf5_fname, self.meta_data, self.settings,
self._frames, self.plate_id,
**self._hdf_options)
self.settings.set_section('Tracking')
# setup tracker
if self.settings.get('Processing', 'tracking'):
region = self.settings.get('Tracking', 'tracking_regionname')
tropts = (self.settings.get('Tracking',
'tracking_maxobjectdistance'),
self.settings.get('Tracking',
'tracking_maxsplitobjects'),
self.settings.get('Tracking', 'tracking_maxtrackinggap'))
self._tracker = Tracker(*tropts)
self._tes = EventSelection(self._tracker.graph, **self._es_options)
stopwatch = StopWatch(start=True)
ca = CellAnalyzer(timeholder=self.timeholder,
position=self.position,
create_images=True,
binning_factor=1,
detect_objects=self.settings.get(
'Processing', 'objectdetection'))
self.setup_classifiers()
self.export_features = self.define_exp_features()
n_images = self._analyze(ca)
if n_images > 0:
# invoke event selection
if self.settings.get('Processing', 'tracking_synchronize_trajectories') and \
self.settings.get('Processing', 'tracking'):
self.logger.debug("--- visitor start")
self._tes.find_events()
self.logger.debug("--- visitor ok")
if self.is_aborted():
return 0 # number of processed images
# save all the data of the position, no aborts from here on
# want all processed data saved
if self.settings.get('Output', 'export_object_counts'):
self.export_object_counts()
if self.settings.get('Output', 'export_object_details'):
self.export_object_details()
if self.settings.get('Output', 'export_file_names'):
self.export_image_names()
if self.settings.get('Processing', 'tracking'):
self.export_tracks_hdf5()
self.update_status({'text': 'export events...'})
if self.settings.get('Processing',
'tracking_synchronize_trajectories'):
self.export_events()
if self.settings.get('Output', 'export_track_data'):
self.export_full_tracks()
if self.settings.get('Output', 'export_tracking_as_dot'):
self.export_graphviz()
self.update_status({
'text': 'export events...',
'max': 1,
'progress': 1
})
# remove all features from all channels to free memory
# for the generation of gallery images
self.timeholder.purge_features()
if self.settings.get('Output', 'events_export_gallery_images'):
self.export_gallery_images()
try:
intval = stopwatch.stop() / n_images * 1000
except ZeroDivisionError:
pass
else:
self.logger.info(
" - %d image sets analyzed, %3d ms per image set" %
(n_images, intval))
self.touch_finished()
# self.clear()
return n_images
@property
def hdf5_filename(self):
return self.timeholder.hdf5_filename
def touch_finished(self, times=None):
"""Writes an empty file to mark this position as finished"""
fname = join(self._finished_dir, '%s__finished.txt' % self.position)
with open(fname, "w") as f:
os.utime(fname, times)
def clear(self):
# closes hdf5
self.timeholder.close_all()
def _analyze(self, cellanalyzer):
super(PositionAnalyzer, self)._analyze()
n_images = 0
stopwatch = StopWatch(start=True)
crd = Coordinate(self.plate_id, self.position, self._frames,
list(set(self.ch_mapping.values())))
for frame, channels in self._imagecontainer( \
crd, interrupt_channel=True, interrupt_zslice=True):
if self.is_aborted():
self.clear()
return 0
else:
txt = 'T %d (%d/%d)' % (frame, self._frames.index(frame) + 1,
len(self._frames))
self.update_status({
'progress': self._frames.index(frame) + 1,
'text': txt,
'interval': stopwatch.interim()
})
stopwatch.reset(start=True)
cellanalyzer.initTimepoint(frame)
self.register_channels(cellanalyzer, channels)
cellanalyzer.process()
n_images += 1
images = []
if self.settings.get('Processing', 'tracking'):
region = self.settings.get('Tracking', 'tracking_regionname')
samples = self.timeholder[frame][
PrimaryChannel.NAME].get_region(region)
self._tracker.track_next_frame(frame, samples)
if self.settings.get('Tracking', 'tracking_visualization'):
size = cellanalyzer.getImageSize(PrimaryChannel.NAME)
nframes = self.settings.get(
'Tracking', 'tracking_visualize_track_length')
radius = self.settings.get('Tracking',
'tracking_centroid_radius')
img_conn, img_split = self._tracker.render_tracks(
frame, size, nframes, radius)
images += [(img_conn, '#FFFF00', 1.0),
(img_split, '#00FFFF', 1.0)]
for clf in self.classifiers.itervalues():
cellanalyzer.classify_objects(clf)
##############################################################
# FIXME - part for browser
if not self._myhack is None:
self.render_browser(cellanalyzer)
##############################################################
self.settings.set_section('General')
self.render_classification_images(cellanalyzer, images, frame)
self.render_contour_images(cellanalyzer, images, frame)
if self.settings.get('Output', 'rendering_channel_gallery'):
self.render_channel_gallery(cellanalyzer, frame)
if self.settings.get('Output', 'rendering_labels_discwrite'):
cellanalyzer.exportLabelImages(self._labels_dir)
self.logger.info(" - Frame %d, duration (ms): %3d" \
%(frame, stopwatch.interim()*1000))
cellanalyzer.purge(features=self.export_features)
return n_images
def render_channel_gallery(self, cellanalyzer, frame):
for channel in cellanalyzer.virtual_channels.itervalues():
chgal = ChannelGallery(channel, frame, self._channel_gallery_dir)
chgal.make_gallery()
def render_contour_images(self, ca, images, frame):
for region, render_par in self.settings.get2('rendering').iteritems():
out_dir = join(self._images_dir, region)
write = self.settings.get('Output', 'rendering_contours_discwrite')
if region not in self.CHANNELS.keys():
img, fname = ca.render(out_dir,
dctRenderInfo=render_par,
writeToDisc=write,
images=images)
msg = 'PL %s - P %s - T %05d' % (self.plate_id, self.position,
frame)
self.set_image(img, msg, fname, region, 50)
# gallery images are treated differenty
else:
ca.render(out_dir, dctRenderInfo=render_par, writeToDisc=True)
def render_classification_images(self, cellanalyzer, images, frame):
for region, render_par in self.settings.get2(
'rendering_class').iteritems():
out_images = join(self._images_dir, region)
write = self.settings.get('Output', 'rendering_class_discwrite')
img_rgb, fname = cellanalyzer.render(out_images,
dctRenderInfo=render_par,
writeToDisc=write,
images=images)
msg = 'PL %s - P %s - T %05d' % (self.plate_id, self.position,
frame)
self.set_image(img_rgb, msg, fname, region, 50)
def render_browser(self, cellanalyzer):
d = {}
for name in cellanalyzer.get_channel_names():
channel = cellanalyzer.get_channel(name)
d[channel.strChannelId] = channel.meta_image.image
self._myhack.show_image(d)
channel_name, region_name = self._myhack._object_region
channel = cellanalyzer.get_channel(channel_name)
if channel.has_region(region_name):
region = channel.get_region(region_name)
coords = {}
for obj_id, obj in region.iteritems():
coords[obj_id] = obj.crack_contour
self._myhack.set_coords(coords)
def _data_per_channel(self, timeholder, event_data, filename, channel_name,
region_name, feature_names, position):
eventid = event_data['eventId']
event_frame, _ = Tracker.split_nodeid(eventid)
has_split = 'splitId' in event_data
header_names = ['Frame', 'Timestamp', 'isEvent']
if has_split:
header_names.append('isSplit')
if event_data['splitId'] is not None:
split_frame, _ = Tracker.split_nodeid(event_data['splitId'])
else:
split_frame = None
table = []
# zip nodes with same time together
for nodeids in zip(*event_data['tracks']):
objids = []
frame = None
for nodeid in nodeids:
node_frame, objid = Tracker.split_nodeid(nodeid)
if frame is None:
frame = node_frame
else:
assert frame == node_frame
objids.append(objid)
channel = timeholder[frame][channel_name]
sample_holder = channel.get_region(region_name)
if feature_names is None:
feature_names = sample_holder.feature_names
if CSVParams.objId not in header_names:
# setup header line
header_names.append(CSVParams.objId)
header_names += [
CSVParams.class_ % x
for x in ['name', 'label', 'probability']
]
# only feature_names scales according to settings
header_names += [
CSVParams.feature % fn for fn in feature_names
]
header_names += [
CSVParams.tracking % tf
for tf in CSVParams.tracking_features
]
coordinate = Coordinate(position=position, time=frame)
data = {
'Frame': frame,
'Timestamp': self.meta_data.get_timestamp_relative(coordinate),
'isEvent': int(frame == event_frame)
}
if has_split:
data['isSplit'] = int(frame == split_frame)
#for iIdx, iObjId in enumerate(lstObjectIds):
objid = objids[0]
if objid in sample_holder:
sample = sample_holder[objid]
data[CSVParams.objId] = objid
# classification data
if sample.iLabel is not None:
data[CSVParams.class_ % 'label'] = sample.iLabel
data[CSVParams.class_ % 'name'] = sample.strClassName
data[CSVParams.class_ %'probability'] = \
','.join(['%d:%.5f' % (int(x),y) for x,y in
sample.dctProb.iteritems()])
common_ftr = [
f for f in set(sample_holder.feature_names).intersection(
feature_names)
]
features = sample_holder.features_by_name(objid, common_ftr)
for feature, fname in zip(features, common_ftr):
data[CSVParams.feature % fname] = feature
# features not calculated are exported as NAN
diff_ftr = [
f for f in set(feature_names).difference(
sample_holder.feature_names)
]
for df in diff_ftr:
data[CSVParams.feature % df] = float("NAN")
# object tracking data (absolute center)
data[CSVParams.tracking % 'center_x'] = sample.oCenterAbs[0]
data[CSVParams.tracking % 'center_y'] = sample.oCenterAbs[1]
data[CSVParams.tracking %
'upperleft_x'] = sample.oRoi.upperLeft[0]
data[CSVParams.tracking %
'upperleft_y'] = sample.oRoi.upperLeft[1]
data[CSVParams.tracking %
'lowerright_x'] = sample.oRoi.lowerRight[0]
data[CSVParams.tracking %
'lowerright_y'] = sample.oRoi.lowerRight[1]
else:
# we rather skip the entire event in case the object ID is not valid
return
table.append(data)
if len(table) > 0:
with open(filename, 'wb') as fp:
writer = csv.DictWriter(fp,
fieldnames=header_names,
delimiter=CSVParams.sep)
writer.writeheader()
writer.writerows(table)
class PositionAnalyzer(PositionCore):
def __init__(self, *args, **kw):
super(PositionAnalyzer, self).__init__(*args, **kw)
if not self.has_timelapse:
self.settings.set('Processing', 'tracking', False)
if self._writelogs:
logfile = join(dirname(dirname(self.datafile)), "log",
"%s.log" % self.position)
self.add_file_handler(logfile, self.Levels.DEBUG)
self.logger.setLevel(self.Levels.DEBUG)
def setup_classifiers(self):
sttg = self.settings
# processing channel, color channel
for p_channel, c_channel in self.ch_mapping.iteritems():
self.settings.set_section('Processing')
if sttg.get2(self._resolve_name(p_channel, 'classification')):
chreg = self._channel_regions(p_channel)
sttg.set_section('Classification')
cpath = sttg.get2(
self._resolve_name(p_channel, 'classification_envpath'))
cpath = join(cpath, basename(cpath) + ".hdf")
svc = SupportVectorClassifier(cpath,
load=True,
channels=chreg,
color_channel=c_channel)
svc.close()
self.classifiers[p_channel] = svc
@property
def _transitions(self):
try:
transitions = np.array(
eval(self.settings.get('EventSelection', 'labeltransitions')))
transitions.reshape((-1, 2))
except Exception as e:
raise RuntimeError(("Make sure that transitions are of the form "
"'int, int' or '(int, int), (int, int)' i.e "
"2-int-tuple or a list of 2-int-tuples"))
return transitions
def setup_eventselection(self, graph):
"""Setup the method for event selection."""
opts = {
'transitions': self._transitions,
'backward_range': self._convert_tracking_duration('backwardrange'),
'forward_range': self._convert_tracking_duration('forwardrange'),
'max_in_degree': self.settings.get('EventSelection',
'maxindegree'),
'max_out_degree': self.settings.get('EventSelection',
'maxoutdegree')
}
opts.update({
'backward_labels': [
int(i) for i in self.settings.get('EventSelection',
'backwardlabels').split(',')
],
'forward_labels': [
int(i) for i in self.settings.get('EventSelection',
'forwardlabels').split(',')
],
'backward_range_min':
self.settings.get('EventSelection', 'backwardrange_min'),
'forward_range_min':
self.settings.get('EventSelection', 'forwardrange_min'),
'backward_check':
self._convert_tracking_duration('backwardCheck'),
'forward_check':
self._convert_tracking_duration('forwardCheck')
})
es = EventSelection(graph, **opts)
return es
def _convert_tracking_duration(self, option_name):
"""Converts a tracking duration according to the unit and the
mean time-lapse of the current position.
Returns number of frames.
"""
value = self.settings.get('EventSelection', option_name)
unit = self.settings.get('EventSelection', 'duration_unit')
# get mean and stddev for the current position
info = self.meta_data.get_timestamp_info(self.position)
if unit == TimeConverter.FRAMES or info is None:
result = value
elif unit == TimeConverter.MINUTES:
result = (value * 60.) / info[0]
elif unit == TimeConverter.SECONDS:
result = value / info[0]
else:
raise ValueError("Wrong unit '%s' specified." % unit)
return int(round(result))
def define_exp_features(self):
features = {}
for name in self.processing_channels:
region_features = {}
for region in MetaPluginManager().region_info.names[name.lower()]:
if name is self.MERGED_CHANNEL:
continue
region_features[region] = \
self.settings.get('General',
'%s_featureextraction_exportfeaturenames'
% name.lower())
features[name] = region_features
# special case for merged channel
if name is self.MERGED_CHANNEL:
mftrs = list()
for channel, region in self._channel_regions(name).iteritems():
if features[channel][region] is None:
mftrs = None
else:
for feature in features[channel][region]:
mftrs.append("_".join((channel, region, feature)))
region_features[
self._all_channel_regions[name].values()] = mftrs
features[name] = region_features
return features
def save_tracks(self):
"""Save tracking data to hdf file"""
self.logger.info("Save tracking data")
self.timeholder.serialize_tracking(self._tracker.graph)
def save_events(self):
self.logger.info("Save Event data")
self.timeholder.serialize_events(self._tes)
def save_classification(self):
"""Save classlabels of each object to the hdf file."""
# function works for supervised and unuspervised case
for channels in self.timeholder.itervalues():
for chname, classifier in self.classifiers.iteritems():
holder = channels[chname].get_region(classifier.regions)
# if classifier.feature_names is None:
# # special for unsupervised case
# classifier.feature_names = holder.feature_names
self.timeholder.save_classlabels(channels[chname], holder,
classifier)
def __call__(self):
thread = QThread.currentThread()
well, site = self._posinfo()
self.timeholder = TimeHolder(self.position, self._all_channel_regions,
self.datafile, self.meta_data,
self.settings, self._frames,
self.plate_id, well, site,
**self._hdf_options)
self.settings.set_section('Tracking')
self.setup_classifiers()
# setup tracker
if self.settings('Processing', 'tracking'):
tropts = (self.settings('Tracking', 'tracking_maxobjectdistance'),
self.settings('Tracking', 'tracking_maxsplitobjects'),
self.settings('Tracking', 'tracking_maxtrackinggap'))
self._tracker = Tracker(*tropts)
stopwatch = StopWatch(start=True)
ca = CellAnalyzer(timeholder=self.timeholder,
position=self.position,
create_images=True,
binning_factor=1,
detect_objects=self.settings('Processing',
'objectdetection'))
self.export_features = self.define_exp_features()
self._analyze(ca)
# invoke event selection
if self.settings('Processing', 'eventselection') and \
self.settings('Processing', 'tracking'):
evchannel = self.settings('EventSelection', 'eventchannel')
region = self.classifiers[evchannel].regions
if evchannel != PrimaryChannel.NAME or region != self.settings(
"Tracking", "region"):
graph = self._tracker.clone_graph(self.timeholder, evchannel,
region)
else:
graph = self._tracker.graph
self._tes = self.setup_eventselection(graph)
self.logger.info("Event detection")
self._tes.find_events()
if self.isAborted():
return 0 # number of processed images
# save all the data of the position, no aborts from here on
# want all processed data saved
if self.settings('Processing', 'tracking'):
self.statusUpdate(text="Saving Tracking Data to cellh5...")
self.save_tracks()
if self.settings('Output', 'hdf5_include_events') and \
self.settings('Processing', "eventselection"):
self.statusUpdate(text="Saving Event Data to cellh5...")
self.save_events()
self.save_classification()
self.timeholder.purge()
try:
n = len(self._frames)
intval = stopwatch.stop() / n * 1000
except ZeroDivisionError:
pass
else:
self.logger.info("%d images analyzed, %3d ms per image set" %
(n, intval))
self.clear()
if isfile(self.datafile):
with Ch5File(self.datafile, mode="r+") as ch5:
ch5.savePlateLayout(self.layout, self.plate_id)
def clear(self):
if self.timeholder is not None:
self.timeholder.close_all()
# close and remove handlers from logging object
self.close()
def _analyze(self, cellanalyzer):
thread = QThread.currentThread()
stopwatch = StopWatch(start=True)
crd = Coordinate(self.plate_id, self.position, self._frames,
list(set(self.ch_mapping.values())))
for frame, channels in self._imagecontainer( \
crd, interrupt_channel=True, interrupt_zslice=True):
self.interruptionPoint()
txt = '%s, %s, T %d (%d/%d)' \
%(self.plate_id, self.position, frame,
self._frames.index(frame)+1, len(self._frames))
self.statusUpdate(text=txt,
interval=stopwatch.interim(),
increment=True)
stopwatch.reset(start=True)
cellanalyzer.initTimepoint(frame)
self.register_channels(cellanalyzer, channels)
cellanalyzer.process()
self.logger.debug(" - Frame %d, cellanalyzer.process (ms): %3d" \
%(frame, stopwatch.interval()*1000))
images = []
if self.settings('Processing', 'tracking'):
apc = AppPreferences()
region = self.settings('Tracking', 'region')
samples = self.timeholder[frame][
PrimaryChannel.NAME].get_region(region)
self._tracker.track_next_frame(frame, samples)
if apc.display_tracks:
size = cellanalyzer.getImageSize(PrimaryChannel.NAME)
img_conn, img_split = self._tracker.render_tracks(
frame, size, apc.track_length, apc.cradius)
images += [(img_conn, '#FFFF00', 1.0),
(img_split, '#00FFFF', 1.0)]
self.logger.debug(" - Frame %d, Tracking (ms): %3d" \
%(frame, stopwatch.interval()*1000))
# can't cluster on a per frame basis
if self.settings("EventSelection", "supervised_event_selection"):
for channel, clf in self.classifiers.iteritems():
cellanalyzer.classify_objects(clf, channel)
self.logger.debug(" - Frame %d, Classification (ms): %3d" \
% (frame, stopwatch.interval()*1000))
self.settings.set_section('General')
# want emit all images at once
imgs = {}
imgs.update(
self.render_classification_images(cellanalyzer, images, frame))
imgs.update(self.render_contour_images(cellanalyzer, images,
frame))
msg = 'PL %s - P %s - T %05d' % (self.plate_id, self.position,
frame)
self.setImage(imgs, msg, 50)
cellanalyzer.purge(features=self.export_features)
self.logger.debug(" - Frame %d, duration (ms): %3d" \
%(frame, stopwatch.interim()*1000))
def render_contour_images(self, ca, images, frame):
images_ = dict()
for region, render_par in self.settings.get2('rendering').iteritems():
img = ca.render(dctRenderInfo=render_par, images=images)
images_[region] = img
return images_
def render_classification_images(self, cellanalyzer, images, frame):
images_ = dict()
for region, render_par in self.settings.get2(
'rendering_class').iteritems():
image = cellanalyzer.render(dctRenderInfo=render_par,
images=images)
images_[region] = image
return images_
class PositionAnalyzer(PositionCore):
def __init__(self, *args, **kw):
super(PositionAnalyzer, self).__init__(*args, **kw)
if not self.has_timelapse:
self.settings.set('Processing', 'tracking', False)
self._makedirs()
self.add_file_handler(join(self._log_dir, "%s.log" %self.position),
self._lvl.DEBUG)
def _makedirs(self):
assert isinstance(self.position, basestring)
assert isinstance(self._out_dir, basestring)
self._analyzed_dir = join(self._out_dir, "analyzed")
if self.has_timelapse:
self._position_dir = join(self._analyzed_dir, self.position)
else:
self._position_dir = self._analyzed_dir
odirs = (self._analyzed_dir,
join(self._out_dir, "log"),
join(self._out_dir, "log", "_finished"),
join(self._out_dir, "hdf5"),
join(self._out_dir, "plots"),
join(self._position_dir, "statistics"),
join(self._position_dir, "gallery"),
join(self._position_dir, "channel_gallery"),
join(self._position_dir, "images"),
join(self._position_dir, "images","_labels"))
for odir in odirs:
try:
makedirs(odir)
except os.error: # no permissions
self.logger.error("mkdir %s: failed" %odir)
else:
self.logger.info("mkdir %s: ok" %odir)
setattr(self, "_%s_dir" %basename(odir.lower()).strip("_"), odir)
def setup_classifiers(self):
sttg = self.settings
# processing channel, color channel
for p_channel, c_channel in self.ch_mapping.iteritems():
self.settings.set_section('Processing')
if sttg.get2(self._resolve_name(p_channel, 'classification')):
sttg.set_section('Classification')
clf = CommonClassPredictor(
clf_dir=sttg.get2(self._resolve_name(p_channel,
'classification_envpath')),
name=p_channel,
channels=self._channel_regions(p_channel),
color_channel=c_channel)
clf.importFromArff()
clf.loadClassifier()
self.classifiers[p_channel] = clf
def _convert_tracking_duration(self, option_name):
"""Converts a tracking duration according to the unit and the
mean time-lapse of the current position.
Returns number of frames.
"""
value = self.settings.get(SECTION_NAME_TRACKING, option_name)
unit = self.settings.get(SECTION_NAME_TRACKING,
'tracking_duration_unit')
# get mean and stddev for the current position
info = self.meta_data.get_timestamp_info(self.position)
if unit == TRACKING_DURATION_UNIT_FRAMES or info is None:
result = value
elif unit == TRACKING_DURATION_UNIT_MINUTES:
result = (value * 60.) / info[0]
elif unit == TRACKING_DURATION_UNIT_SECONDS:
result = value / info[0]
else:
raise ValueError("Wrong unit '%s' specified." %unit)
return int(round(result))
@property
def _es_options(self):
transitions = eval(self.settings.get2('tracking_labeltransitions'))
if not isinstance(transitions[0], tuple):
transitions = (transitions, )
evopts = {'transitions': transitions,
'backward_labels': map(int, self.settings.get2('tracking_backwardlabels').split(',')),
'forward_labels': map(int, self.settings.get2('tracking_forwardlabels').split(',')),
'backward_check': self._convert_tracking_duration('tracking_backwardCheck'),
'forward_check': self._convert_tracking_duration('tracking_forwardCheck'),
'backward_range': self._convert_tracking_duration('tracking_backwardrange'),
'forward_range': self._convert_tracking_duration('tracking_forwardrange'),
'backward_range_min': self.settings.get2('tracking_backwardrange_min'),
'forward_range_min': self.settings.get2('tracking_forwardrange_min'),
'max_in_degree': self.settings.get2('tracking_maxindegree'),
'max_out_degree': self.settings.get2('tracking_maxoutdegree')}
return evopts
def define_exp_features(self):
features = {}
for name in self.processing_channels:
region_features = {}
for region in REGION_INFO.names[name.lower()]:
# export all features extracted per regions
if self.settings.get('Output', 'events_export_all_features') or \
self.settings.get('Output', 'export_track_data'):
# None means all features
region_features[region] = None
# export selected features from settings
else:
region_features[region] = \
self.settings.get('General',
'%s_featureextraction_exportfeaturenames'
% name.lower())
features[name] = region_features
return features
def export_object_counts(self):
fname = join(self._statistics_dir, 'P%s__object_counts.txt' % self.position)
# at least the total count for primary is always exported
ch_info = OrderedDict([('Primary', ('primary', [], []))])
for name, clf in self.classifiers.iteritems():
names = clf.class_names.values()
colors = [clf.hexcolors[n] for n in names]
ch_info[name] = (clf.regions, names, colors)
self.timeholder.exportObjectCounts(fname, self.position, self.meta_data, ch_info)
pplot_ymax = \
self.settings.get('Output', 'export_object_counts_ylim_max')
# plot only for primary channel so far!
self.timeholder.exportPopulationPlots(fname, self._plots_dir, self.position,
self.meta_data, ch_info['Primary'], pplot_ymax)
def export_object_details(self):
fname = join(self._statistics_dir,
'P%s__object_details.txt' % self.position)
self.timeholder.exportObjectDetails(fname, excel_style=False)
fname = join(self._statistics_dir,
'P%s__object_details_excel.txt' % self.position)
self.timeholder.exportObjectDetails(fname, excel_style=True)
def export_image_names(self):
self.timeholder.exportImageFileNames(self._statistics_dir,
self.position,
self._imagecontainer._importer,
self.ch_mapping)
def export_full_tracks(self):
odir = join(self._statistics_dir, 'full')
exporter = EventExporter(self.meta_data)
exporter.full_tracks(self.timeholder, self._tes.visitor_data,
self.position, odir)
def export_graphviz(self, channel_name='Primary', region_name='primary'):
filename = 'tracking_graph___P%s.dot' %self.position
exporter = TrackExporter()
exporter.graphviz_dot(join(self._statistics_dir, filename),
self._tracker)
sample_holders = OrderedDict()
for frame in self.timeholder.keys():
channel = self.timeholder[frame][channel_name]
sample_holders[frame] = channel.get_region(region_name)
filename = join(self._statistics_dir, filename.replace('.dot', '_features.csv'))
exporter.tracking_data(filename, sample_holders)
def export_gallery_images(self):
for ch_name in self.processing_channels:
cutter_in = join(self._images_dir, ch_name)
if isdir(cutter_in):
cutter_out = join(self._gallery_dir, ch_name)
self.logger.info("running Cutter for '%s'..." %ch_name)
image_size = \
self.settings.get('Output', 'events_gallery_image_size')
EventGallery(self._tes, cutter_in, self.position, cutter_out,
self.meta_data, oneFilePerTrack=True,
size=(image_size, image_size))
# FIXME: be careful here. normally only raw images are
# used for the cutter and can be deleted
# afterwards
shutil.rmtree(cutter_in, ignore_errors=True)
def export_tracks_hdf5(self):
"""Save tracking data to hdf file"""
self.logger.debug("--- serializing tracking start")
self.timeholder.serialize_tracking(self._tes.graph)
self.logger.debug("--- serializing tracking ok")
def export_events(self):
"""Export and save event selceciton data"""
exporter = EventExporter(self.meta_data)
# writes to the event folder
odir = join(self._statistics_dir, "events")
exporter.track_features(self.timeholder, self._tes.visitor_data,
self.export_features, self.position, odir)
self.logger.debug("--- visitor analysis ok")
# writes event data to hdf5
self.timeholder.serialize_events(self._tes)
self.logger.debug("--- serializing events ok")
def __call__(self):
# include hdf5 file name in hdf5_options
# perhaps timeholder might be a good placke to read out the options
# fils must not exist to proceed
hdf5_fname = join(self._hdf5_dir, '%s.ch5' % self.position)
self.timeholder = TimeHolder(self.position, self._all_channel_regions,
hdf5_fname,
self.meta_data, self.settings,
self._frames,
self.plate_id,
**self._hdf_options)
self.settings.set_section('Tracking')
# setup tracker
if self.settings.get('Processing', 'tracking'):
region = self.settings.get('Tracking', 'tracking_regionname')
tropts = (self.settings.get('Tracking', 'tracking_maxobjectdistance'),
self.settings.get('Tracking', 'tracking_maxsplitobjects'),
self.settings.get('Tracking', 'tracking_maxtrackinggap'))
self._tracker = Tracker(*tropts)
self._tes = EventSelection(self._tracker.graph, **self._es_options)
stopwatch = StopWatch(start=True)
ca = CellAnalyzer(timeholder=self.timeholder,
position = self.position,
create_images = True,
binning_factor = 1,
detect_objects = self.settings.get('Processing',
'objectdetection'))
self.setup_classifiers()
self.export_features = self.define_exp_features()
n_images = self._analyze(ca)
if n_images > 0:
# invoke event selection
if self.settings.get('Processing', 'tracking_synchronize_trajectories') and \
self.settings.get('Processing', 'tracking'):
self.logger.debug("--- visitor start")
self._tes.find_events()
self.logger.debug("--- visitor ok")
if self.is_aborted():
return 0 # number of processed images
# save all the data of the position, no aborts from here on
# want all processed data saved
if self.settings.get('Output', 'export_object_counts'):
self.export_object_counts()
if self.settings.get('Output', 'export_object_details'):
self.export_object_details()
if self.settings.get('Output', 'export_file_names'):
self.export_image_names()
if self.settings.get('Processing', 'tracking'):
self.export_tracks_hdf5()
self.update_status({'text': 'export events...'})
if self.settings.get('Processing', 'tracking_synchronize_trajectories'):
self.export_events()
if self.settings.get('Output', 'export_track_data'):
self.export_full_tracks()
if self.settings.get('Output', 'export_tracking_as_dot'):
self.export_graphviz()
self.update_status({'text': 'export events...',
'max': 1,
'progress': 1})
# remove all features from all channels to free memory
# for the generation of gallery images
self.timeholder.purge_features()
if self.settings.get('Output', 'events_export_gallery_images'):
self.export_gallery_images()
try:
intval = stopwatch.stop()/n_images*1000
except ZeroDivisionError:
pass
else:
self.logger.info(" - %d image sets analyzed, %3d ms per image set" %
(n_images, intval))
self.touch_finished()
# self.clear()
return n_images
@property
def hdf5_filename(self):
return self.timeholder.hdf5_filename
def touch_finished(self, times=None):
"""Writes an empty file to mark this position as finished"""
fname = join(self._finished_dir, '%s__finished.txt' % self.position)
with open(fname, "w") as f:
os.utime(fname, times)
def clear(self):
# closes hdf5
self.timeholder.close_all()
def _analyze(self, cellanalyzer):
super(PositionAnalyzer, self)._analyze()
n_images = 0
stopwatch = StopWatch(start=True)
crd = Coordinate(self.plate_id, self.position,
self._frames, list(set(self.ch_mapping.values())))
for frame, channels in self._imagecontainer( \
crd, interrupt_channel=True, interrupt_zslice=True):
if self.is_aborted():
self.clear()
return 0
else:
txt = 'T %d (%d/%d)' %(frame, self._frames.index(frame)+1,
len(self._frames))
self.update_status({'progress': self._frames.index(frame)+1,
'text': txt,
'interval': stopwatch.interim()})
stopwatch.reset(start=True)
cellanalyzer.initTimepoint(frame)
self.register_channels(cellanalyzer, channels)
cellanalyzer.process()
n_images += 1
images = []
if self.settings.get('Processing', 'tracking'):
region = self.settings.get('Tracking', 'tracking_regionname')
samples = self.timeholder[frame][PrimaryChannel.NAME].get_region(region)
self._tracker.track_next_frame(frame, samples)
if self.settings.get('Tracking', 'tracking_visualization'):
size = cellanalyzer.getImageSize(PrimaryChannel.NAME)
nframes = self.settings.get('Tracking', 'tracking_visualize_track_length')
radius = self.settings.get('Tracking', 'tracking_centroid_radius')
img_conn, img_split = self._tracker.render_tracks(
frame, size, nframes, radius)
images += [(img_conn, '#FFFF00', 1.0),
(img_split, '#00FFFF', 1.0)]
for clf in self.classifiers.itervalues():
cellanalyzer.classify_objects(clf)
##############################################################
# FIXME - part for browser
if not self._myhack is None:
self.render_browser(cellanalyzer)
##############################################################
self.settings.set_section('General')
self.render_classification_images(cellanalyzer, images, frame)
self.render_contour_images(cellanalyzer, images, frame)
if self.settings.get('Output', 'rendering_channel_gallery'):
self.render_channel_gallery(cellanalyzer, frame)
if self.settings.get('Output', 'rendering_labels_discwrite'):
cellanalyzer.exportLabelImages(self._labels_dir)
self.logger.info(" - Frame %d, duration (ms): %3d" \
%(frame, stopwatch.interim()*1000))
cellanalyzer.purge(features=self.export_features)
return n_images
def render_channel_gallery(self, cellanalyzer, frame):
for channel in cellanalyzer.virtual_channels.itervalues():
chgal = ChannelGallery(channel, frame, self._channel_gallery_dir)
chgal.make_gallery()
def render_contour_images(self, ca, images, frame):
for region, render_par in self.settings.get2('rendering').iteritems():
out_dir = join(self._images_dir, region)
write = self.settings.get('Output', 'rendering_contours_discwrite')
if region not in self.CHANNELS.keys():
img, fname = ca.render(out_dir, dctRenderInfo=render_par,
writeToDisc=write, images=images)
msg = 'PL %s - P %s - T %05d' %(self.plate_id, self.position,
frame)
self.set_image(img, msg, fname, region, 50)
# gallery images are treated differenty
else:
ca.render(out_dir, dctRenderInfo=render_par, writeToDisc=True)
def render_classification_images(self, cellanalyzer, images, frame):
for region, render_par in self.settings.get2('rendering_class').iteritems():
out_images = join(self._images_dir, region)
write = self.settings.get('Output', 'rendering_class_discwrite')
img_rgb, fname = cellanalyzer.render(out_images,
dctRenderInfo=render_par,
writeToDisc=write,
images=images)
msg = 'PL %s - P %s - T %05d' %(self.plate_id, self.position, frame)
self.set_image(img_rgb, msg, fname, region, 50)
def render_browser(self, cellanalyzer):
d = {}
for name in cellanalyzer.get_channel_names():
channel = cellanalyzer.get_channel(name)
d[channel.strChannelId] = channel.meta_image.image
self._myhack.show_image(d)
channel_name, region_name = self._myhack._object_region
channel = cellanalyzer.get_channel(channel_name)
if channel.has_region(region_name):
region = channel.get_region(region_name)
coords = {}
for obj_id, obj in region.iteritems():
coords[obj_id] = obj.crack_contour
self._myhack.set_coords(coords)
class PositionAnalyzer(PositionCore):
def __init__(self, *args, **kw):
super(PositionAnalyzer, self).__init__(*args, **kw)
if not self.has_timelapse:
self.settings.set('Processing', 'tracking', False)
self._makedirs()
self.add_file_handler(join(self._log_dir, "%s.log" %self.position),
self.Levels.DEBUG)
def _makedirs(self):
assert isinstance(self.position, basestring)
assert isinstance(self._out_dir, basestring)
self._analyzed_dir = join(self._out_dir, "analyzed")
if self.has_timelapse:
self._position_dir = join(self._analyzed_dir, self.position)
else:
self._position_dir = self._analyzed_dir
odirs = (self._analyzed_dir,
join(self._out_dir, "log"),
join(self._out_dir, "log", "_finished"),
join(self._out_dir, "hdf5"),
join(self._out_dir, "plots"),
join(self._position_dir, "statistics"),
join(self._position_dir, "tc3"),
join(self._position_dir, "gallery"),
join(self._position_dir, "channel_gallery"),
join(self._position_dir, "images"),
join(self._position_dir, "images","_labels"))
for odir in odirs:
try:
makedirs(odir)
except os.error: # no permissions
self.logger.error("mkdir %s: failed" %odir)
else:
self.logger.info("mkdir %s: ok" %odir)
setattr(self, "_%s_dir" %basename(odir.lower()).strip("_"), odir)
def setup_classifiers(self):
sttg = self.settings
# processing channel, color channel
for p_channel, c_channel in self.ch_mapping.iteritems():
self.settings.set_section('Processing')
if sttg.get2(self._resolve_name(p_channel, 'classification')):
chreg = self._channel_regions(p_channel)
if sttg("EventSelection", "unsupervised_event_selection"):
nclusters = sttg("EventSelection", "num_clusters")
self.classifiers[p_channel] = ClassDefinitionUnsup( \
nclusters, chreg)
else:
sttg.set_section('Classification')
clf = CommonClassPredictor(
clf_dir=sttg.get2(self._resolve_name(p_channel,
'classification_envpath')),
name=p_channel,
channels=chreg,
color_channel=c_channel)
clf.importFromArff()
clf.loadClassifier()
self.classifiers[p_channel] = clf
@property
def _transitions(self):
if self.settings.get('EventSelection', 'unsupervised_event_selection'):
transitions = np.array((0, 1))
else:
try:
transitions = np.array(eval(self.settings.get('EventSelection', 'labeltransitions')))
transitions.reshape((-1, 2))
except Exception as e:
raise RuntimeError(("Make sure that transitions are of the form "
"'int, int' or '(int, int), (int, int)' i.e "
"2-int-tuple or a list of 2-int-tuples"))
return transitions
def setup_eventselection(self, graph):
"""Setup the method for event selection."""
opts = {'transitions': self._transitions,
'backward_range': self._convert_tracking_duration('backwardrange'),
'forward_range': self._convert_tracking_duration('forwardrange'),
'max_in_degree': self.settings.get('EventSelection', 'maxindegree'),
'max_out_degree': self.settings.get('EventSelection', 'maxoutdegree')}
if self.settings.get('EventSelection', 'supervised_event_selection'):
opts.update({'backward_labels': [int(i) for i in self.settings.get('EventSelection', 'backwardlabels').split(',')],
'forward_labels': [int(i) for i in self.settings.get('EventSelection', 'forwardlabels').split(',')],
'backward_range_min': self.settings.get('EventSelection', 'backwardrange_min'),
'forward_range_min': self.settings.get('EventSelection', 'forwardrange_min'),
'backward_check': self._convert_tracking_duration('backwardCheck'),
'forward_check': self._convert_tracking_duration('forwardCheck')})
es = EventSelection(graph, **opts)
elif self.settings.get('EventSelection', 'unsupervised_event_selection'):
cld = self.classifiers.values()[0] # only one classdef in case of UES
opts.update({'forward_check': self._convert_tracking_duration('min_event_duration'),
'forward_labels': (1, ),
'backward_check': -1, # unsused for unsupervised usecase
'backward_labels': (0, ),
'num_clusters': self.settings.get('EventSelection', 'num_clusters'),
'min_cluster_size': self.settings.get('EventSelection', 'min_cluster_size'),
'classdef': cld})
es = UnsupervisedEventSelection(graph, **opts)
return es
def _convert_tracking_duration(self, option_name):
"""Converts a tracking duration according to the unit and the
mean time-lapse of the current position.
Returns number of frames.
"""
value = self.settings.get('EventSelection', option_name)
unit = self.settings.get('EventSelection', 'duration_unit')
# get mean and stddev for the current position
info = self.meta_data.get_timestamp_info(self.position)
if unit == TimeConverter.FRAMES or info is None:
result = value
elif unit == TimeConverter.MINUTES:
result = (value * 60.) / info[0]
elif unit == TimeConverter.SECONDS:
result = value / info[0]
else:
raise ValueError("Wrong unit '%s' specified." %unit)
return int(round(result))
def define_exp_features(self):
features = {}
for name in self.processing_channels:
region_features = {}
for region in MetaPluginManager().region_info.names[name.lower()]:
if name is self.MERGED_CHANNEL:
continue
# export all features extracted per regions
if self.settings.get('Output', 'events_export_all_features') or \
self.settings.get('Output', 'export_track_data'):
# None means all features
region_features[region] = None
# export selected features from settings
else:
region_features[region] = \
self.settings.get('General',
'%s_featureextraction_exportfeaturenames'
% name.lower())
features[name] = region_features
# special case for merged channel
if name is self.MERGED_CHANNEL:
mftrs = list()
for channel, region in self._channel_regions(name).iteritems():
if features[channel][region] is None:
mftrs = None
else:
for feature in features[channel][region]:
mftrs.append("_".join((channel, region, feature)))
region_features[self._all_channel_regions[name].values()] = mftrs
features[name] = region_features
return features
def export_object_counts(self):
fname = join(self._statistics_dir, 'P%s__object_counts.txt' % self.position)
ch_info = OrderedDict()
for name, clf in self.classifiers.iteritems():
names = clf.class_names.values()
colors = [clf.hexcolors[n] for n in names]
ch_info[name] = (clf.regions, names, colors)
# if no classifier has been loaded, no counts can be exported.
if len(ch_info) == 0:
return
self.timeholder.exportObjectCounts(fname, self.position, self.meta_data, ch_info)
pplot_ymax = \
self.settings.get('Output', 'export_object_counts_ylim_max')
self.timeholder.exportPopulationPlots(ch_info, self._plots_dir,
self.plate_id, self.position,
ymax=pplot_ymax)
def export_object_details(self):
fname = join(self._statistics_dir,
'P%s__object_details.txt' % self.position)
self.timeholder.exportObjectDetails(fname)
def export_image_names(self):
self.timeholder.exportImageFileNames(self._statistics_dir,
self.position,
self._imagecontainer._importer,
self.ch_mapping)
def export_full_tracks(self):
odir = join(self._statistics_dir, 'full')
exporter = EventExporter(self.meta_data)
exporter.full_tracks(self.timeholder, self._tes.visitor_data,
self.position, odir)
def export_graphviz(self, channel_name='Primary', region_name='primary'):
filename = 'tracking_graph___P%s.dot' %self.position
exporter = TrackExporter()
exporter.graphviz_dot(join(self._statistics_dir, filename),
self._tracker)
sample_holders = OrderedDict()
for frame in self.timeholder.keys():
channel = self.timeholder[frame][channel_name]
sample_holders[frame] = channel.get_region(region_name)
filename = join(self._statistics_dir, filename.replace('.dot', '_features.csv'))
exporter.tracking_data(filename, sample_holders)
def export_gallery_images(self):
for ch_name in self.processing_channels:
cutter_in = join(self._images_dir, ch_name.lower())
if not isdir(cutter_in):
self.logger.warning('directory not found (%s)' %cutter_in)
self.logger.warning('can not write the gallery images')
else:
cutter_out = join(self._gallery_dir, ch_name.lower())
self.logger.info("running Cutter for '%s'..." %ch_name)
image_size = \
self.settings.get('Output', 'events_gallery_image_size')
TrackGallery(self._tes.centers(),
cutter_in, cutter_out, self.position, size=image_size)
# FIXME: be careful here. normally only raw images are
# used for the cutter and can be deleted
# afterwards
shutil.rmtree(cutter_in, ignore_errors=True)
def export_tracks_hdf5(self):
"""Save tracking data to hdf file"""
self.logger.debug("--- serializing tracking start")
self.timeholder.serialize_tracking(self._tracker.graph)
self.logger.debug("--- serializing tracking ok")
def export_events(self):
"""Export and save event selection data"""
exporter = EventExporter(self.meta_data)
# writes to the event folder
odir = join(self._statistics_dir, "events")
exporter.track_features(self.timeholder, self._tes.visitor_data,
self.export_features, self.position, odir)
self.logger.debug("--- serializing events ok")
def export_events_hdf5(self):
# writes event data to hdf5
self.timeholder.serialize_events(self._tes)
def export_tc3(self):
t_mean = self.meta_data.get_timestamp_info(self.position)[0]
tu = TimeConverter(t_mean, TimeConverter.SECONDS)
increment = self.settings('General', 'frameincrement')
t_step = tu.sec2min(t_mean)*increment
nclusters = self.settings.get('EventSelection', 'num_clusters')
exporter = TC3Exporter(self._tes.tc3data, self._tc3_dir, nclusters,
t_step, TimeConverter.MINUTES, self.position)
exporter()
def export_classlabels(self):
"""Save classlabels of each object to the hdf file."""
# function works for supervised and unuspervised case
for channels in self.timeholder.itervalues():
for chname, classifier in self.classifiers.iteritems():
holder = channels[chname].get_region(classifier.regions)
if classifier.feature_names is None:
# special for unsupervised case
classifier.feature_names = holder.feature_names
self.timeholder.save_classlabels(channels[chname],
holder, classifier)
def __call__(self):
# include hdf5 file name in hdf5_options
# perhaps timeholder might be a good place to read out the options
# file does not have to exist to proceed
hdf5_fname = join(self._hdf5_dir, '%s.ch5' % self.position)
self.timeholder = TimeHolder(self.position, self._all_channel_regions,
hdf5_fname,
self.meta_data, self.settings,
self._frames,
self.plate_id,
**self._hdf_options)
self.settings.set_section('Tracking')
self.setup_classifiers()
# setup tracker
if self.settings('Processing', 'tracking'):
tropts = (self.settings('Tracking', 'tracking_maxobjectdistance'),
self.settings('Tracking', 'tracking_maxsplitobjects'),
self.settings('Tracking', 'tracking_maxtrackinggap'))
self._tracker = Tracker(*tropts)
stopwatch = StopWatch(start=True)
ca = CellAnalyzer(timeholder=self.timeholder,
position = self.position,
create_images = True,
binning_factor = 1,
detect_objects = self.settings('Processing',
'objectdetection'))
self.export_features = self.define_exp_features()
n_images = self._analyze(ca)
if n_images > 0:
# invoke event selection
if self.settings('Processing', 'eventselection') and \
self.settings('Processing', 'tracking'):
evchannel = self.settings('EventSelection', 'eventchannel')
region = self.classifiers[evchannel].regions
if self.settings('EventSelection', 'unsupervised_event_selection'):
graph = self._tracker.graph
elif evchannel != PrimaryChannel.NAME or \
region != self.settings("Tracking", "region"):
graph = self._tracker.clone_graph(self.timeholder,
evchannel,
region)
else:
graph = self._tracker.graph
self._tes = self.setup_eventselection(graph)
self.logger.debug("--- visitor start")
self._tes.find_events()
self.logger.debug("--- visitor ok")
if self.is_aborted():
return 0 # number of processed images
# save all the data of the position, no aborts from here on
# want all processed data saved
if self.settings('Output', 'export_object_counts') and \
self.settings('EventSelection', 'supervised_event_selection'):
# no object counts in case of unsupervised event selection
self.export_object_counts()
if self.settings('Output', 'export_object_details'):
self.export_object_details()
if self.settings('Output', 'export_file_names'):
self.export_image_names()
if self.settings('Processing', 'tracking'):
self.export_tracks_hdf5()
self.update_status({'text': 'export events...'})
if self.settings('Output', 'hdf5_include_events'):
self.export_events_hdf5()
if self.settings('Output', "export_events"):
if self.settings('Processing', 'eventselection'):
self.export_events()
if self.settings('EventSelection', 'unsupervised_event_selection'):
self.export_tc3()
if self.settings('Output', 'export_track_data'):
self.export_full_tracks()
if self.settings('Output', 'export_tracking_as_dot'):
self.export_graphviz(channel_name =PrimaryChannel.NAME,\
region_name =self._all_channel_regions[PrimaryChannel.NAME][PrimaryChannel.NAME])
self.export_classlabels()
self.update_status({'text': 'export events...',
'max': 1,
'progress': 1})
# remove all features from all channels to free memory
# for the generation of gallery images
self.timeholder.purge_features()
if self.settings.get('Output', 'events_export_gallery_images') and \
self.settings.get('Processing', 'eventselection'):
self.export_gallery_images()
try:
intval = stopwatch.stop()/n_images*1000
except ZeroDivisionError:
pass
else:
self.logger.info(" - %d image sets analyzed, %3d ms per image set" %
(n_images, intval))
self.touch_finished()
self.clear()
return n_images
@property
def hdf5_filename(self):
return self.timeholder.hdf5_filename
def touch_finished(self, times=None):
"""Writes an empty file to mark this position as finished"""
fname = join(self._finished_dir, '%s__finished.txt' % self.position)
with open(fname, "w") as f:
os.utime(fname, times)
def clear(self):
# closes
if self.timeholder is not None:
self.timeholder.close_all()
# close and remove handlers from logging object
self.close()
def _analyze(self, cellanalyzer):
super(PositionAnalyzer, self)._analyze()
n_images = 0
stopwatch = StopWatch(start=True)
crd = Coordinate(self.plate_id, self.position,
self._frames, list(set(self.ch_mapping.values())))
minimal_effort = self.settings.get('Output', 'minimal_effort') and self.settings.get('Output', 'hdf5_reuse')
for frame, channels in self._imagecontainer( \
crd, interrupt_channel=True, interrupt_zslice=True):
if self.is_aborted():
self.clear()
return 0
else:
txt = 'T %d (%d/%d)' %(frame, self._frames.index(frame)+1,
len(self._frames))
self.update_status({'progress': self._frames.index(frame)+1,
'text': txt,
'interval': stopwatch.interim()})
stopwatch.reset(start=True)
cellanalyzer.initTimepoint(frame)
self.register_channels(cellanalyzer, channels)
cellanalyzer.process()
self.logger.info(" - Frame %d, cellanalyzer.process (ms): %3d" \
%(frame, stopwatch.interval()*1000))
n_images += 1
images = []
if self.settings('Processing', 'tracking'):
region = self.settings('Tracking', 'region')
samples = self.timeholder[frame][PrimaryChannel.NAME].get_region(region)
self._tracker.track_next_frame(frame, samples)
if self.settings('Tracking', 'tracking_visualization'):
size = cellanalyzer.getImageSize(PrimaryChannel.NAME)
nframes = self.settings('Tracking', 'tracking_visualize_track_length')
radius = self.settings('Tracking', 'tracking_centroid_radius')
img_conn, img_split = self._tracker.render_tracks(
frame, size, nframes, radius)
images += [(img_conn, '#FFFF00', 1.0),
(img_split, '#00FFFF', 1.0)]
self.logger.info(" - Frame %d, Tracking (ms): %3d" \
%(frame, stopwatch.interval()*1000))
# can't cluster on a per frame basis
if self.settings("EventSelection", "supervised_event_selection"):
for clf in self.classifiers.itervalues():
cellanalyzer.classify_objects(clf)
self.logger.info(" - Frame %d, Classification (ms): %3d" \
% (frame, stopwatch.interval()*1000))
self.settings.set_section('General')
# want emit all images at once
if not minimal_effort:
imgs = {}
imgs.update(self.render_classification_images(cellanalyzer, images, frame))
imgs.update(self.render_contour_images(cellanalyzer, images, frame))
msg = 'PL %s - P %s - T %05d' %(self.plate_id, self.position, frame)
self.set_image(imgs, msg, 50)
if self.settings('Output', 'rendering_channel_gallery'):
self.render_channel_gallery(cellanalyzer, frame)
if self.settings('Output', 'rendering_labels_discwrite'):
cellanalyzer.exportLabelImages(self._labels_dir)
cellanalyzer.purge(features=self.export_features)
self.logger.info(" - Frame %d, rest (ms): %3d" \
%(frame, stopwatch.interval()*1000))
self.logger.info(" - Frame %d, duration (ms): %3d" \
%(frame, stopwatch.interim()*1000))
return n_images
def render_channel_gallery(self, cellanalyzer, frame):
for channel in cellanalyzer.virtual_channels.itervalues():
chgal = ChannelGallery(channel, frame, self._channel_gallery_dir)
chgal.make_gallery()
def render_contour_images(self, ca, images, frame):
images_ = dict()
for region, render_par in self.settings.get2('rendering').iteritems():
out_dir = join(self._images_dir, region)
write = self.settings('Output', 'rendering_contours_discwrite')
if region not in self.CHANNELS.keys():
img, _ = ca.render(out_dir, dctRenderInfo=render_par,
writeToDisc=write, images=images)
images_[region] = img
# gallery images are treated differenty
else:
ca.render(out_dir, dctRenderInfo=render_par, writeToDisc=True)
return images_
def render_classification_images(self, cellanalyzer, images, frame):
images_ = dict()
for region, render_par in self.settings.get2('rendering_class').iteritems():
out_images = join(self._images_dir, region)
write = self.settings('Output', 'rendering_class_discwrite')
image, _ = cellanalyzer.render(out_images,
dctRenderInfo=render_par,
writeToDisc=write,
images=images)
images_[region] = image
return images_
def full_tracks(self, timeholder, visitor_data, position, outdir):
shutil.rmtree(outdir, True)
makedirs(outdir)
for start_id, data in visitor_data.iteritems():
for idx, track in enumerate(data['_full_tracks']):
has_header = False
line1 = []
line2 = []
line3 = []
frame, obj_label = Tracker.split_nodeid(start_id)[:2]
filename = 'P%s__T%05d__O%04d__B%02d.txt' \
%(position, frame, obj_label, idx+1)
f = file(join(outdir, filename), 'w')
for node_id in track:
frame, obj_id = Tracker.split_nodeid(node_id)
coordinate = Coordinate(position=position, time=frame)
prefix = [
frame,
self.meta_data.get_timestamp_relative(coordinate),
obj_id
]
prefix_names = ['frame', 'time', 'objID']
items = []
for channel in timeholder[frame].values():
for region_id in channel.region_names():
region = channel.get_region(region_id)
if obj_id in region:
flkp = self._map_feature_names(
region.feature_names)
if not has_header:
keys = ['classLabel', 'className']
if channel.NAME == 'Primary':
keys += ['centerX', 'centerY']
keys += flkp.keys()
line1 += [channel.NAME.upper()] * len(keys)
line2 += [str(region_id)] * len(keys)
line3 += keys
obj = region[obj_id]
features = region.features_by_name(
obj_id, flkp.values())
values = [
x if not x is None else ''
for x in [obj.iLabel, obj.strClassName]
]
if channel.NAME == 'Primary':
values += [
obj.oCenterAbs[0], obj.oCenterAbs[1]
]
values += list(features)
items.extend(values)
if not has_header:
has_header = True
prefix_str = [''] * len(prefix)
line1 = prefix_str + line1
line2 = prefix_str + line2
line3 = prefix_names + line3
f.write('%s\n' % CSVParams.sep.join(line1))
f.write('%s\n' % CSVParams.sep.join(line2))
f.write('%s\n' % CSVParams.sep.join(line3))
f.write(
'%s\n' %
CSVParams.sep.join([str(i) for i in prefix + items]))
f.close()
def _split_nodeid(self, nodeid):
ret = Tracker.split_nodeid(nodeid)
if len(ret) == 2:
ret = ret + (1,)
return ret
class PositionAnalyzer(PositionCore):
def __init__(self, *args, **kw):
super(PositionAnalyzer, self).__init__(*args, **kw)
if not self.has_timelapse:
self.settings.set('Processing', 'tracking', False)
self._makedirs()
self.add_file_handler(join(self._log_dir, "%s.log" %self.position),
self.Levels.DEBUG)
def _makedirs(self):
assert isinstance(self.position, basestring)
assert isinstance(self._out_dir, basestring)
self._analyzed_dir = join(self._out_dir, "analyzed")
if self.has_timelapse:
self._position_dir = join(self._analyzed_dir, self.position)
else:
self._position_dir = self._analyzed_dir
odirs = (self._analyzed_dir,
join(self._out_dir, "log"),
join(self._out_dir, "log", "_finished"),
join(self._out_dir, "hdf5"),
join(self._out_dir, "plots"),
join(self._position_dir, "statistics"),
join(self._position_dir, "tc3"),
join(self._position_dir, "gallery"),
join(self._position_dir, "channel_gallery"),
join(self._position_dir, "images"),
join(self._position_dir, "images","_labels"))
for odir in odirs:
try:
makedirs(odir)
except os.error: # no permissions
self.logger.error("mkdir %s: failed" %odir)
else:
self.logger.info("mkdir %s: ok" %odir)
setattr(self, "_%s_dir" %basename(odir.lower()).strip("_"), odir)
def setup_classifiers(self):
sttg = self.settings
# processing channel, color channel
for p_channel, c_channel in self.ch_mapping.iteritems():
self.settings.set_section('Processing')
if sttg.get2(self._resolve_name(p_channel, 'classification')):
chreg = self._channel_regions(p_channel)
if sttg("EventSelection", "unsupervised_event_selection"):
nclusters = sttg("EventSelection", "num_clusters")
self.classifiers[p_channel] = ClassDefinitionUnsup( \
nclusters, chreg)
else:
sttg.set_section('Classification')
clf = CommonClassPredictor(
clf_dir=sttg.get2(self._resolve_name(p_channel,
'classification_envpath')),
name=p_channel,
channels=chreg,
color_channel=c_channel)
clf.importFromArff()
clf.loadClassifier()
self.classifiers[p_channel] = clf
@property
def _transitions(self):
if self.settings.get('EventSelection', 'unsupervised_event_selection'):
transitions = np.array(((0, 1), ))
else:
try:
transitions = np.array(eval(self.settings.get('EventSelection', 'labeltransitions')))
transitions.reshape((-1, 2))
except Exception as e:
raise RuntimeError(("Make sure that transitions are of the form "
"'int, int' or '(int, int), (int, int)' i.e "
"2-int-tuple or a list of 2-int-tuples"))
return transitions
def setup_eventselection(self, graph):
"""Setup the method for event selection."""
opts = {'transitions': self._transitions,
'backward_range': self._convert_tracking_duration('backwardrange'),
'forward_range': self._convert_tracking_duration('forwardrange'),
'max_in_degree': self.settings.get('EventSelection', 'maxindegree'),
'max_out_degree': self.settings.get('EventSelection', 'maxoutdegree')}
if self.settings.get('EventSelection', 'supervised_event_selection'):
opts.update({'backward_labels': [int(i) for i in self.settings.get('EventSelection', 'backwardlabels').split(',')],
'forward_labels': [int(i) for i in self.settings.get('EventSelection', 'forwardlabels').split(',')],
'backward_range_min': self.settings.get('EventSelection', 'backwardrange_min'),
'forward_range_min': self.settings.get('EventSelection', 'forwardrange_min'),
'backward_check': self._convert_tracking_duration('backwardCheck'),
'forward_check': self._convert_tracking_duration('forwardCheck')})
es = EventSelection(graph, **opts)
elif self.settings.get('EventSelection', 'unsupervised_event_selection'):
cld = self.classifiers.values()[0] # only one classdef in case of UES
opts.update({'forward_check': self._convert_tracking_duration('min_event_duration'),
'forward_labels': (1, ),
'backward_check': -1, # unsused for unsupervised usecase
'backward_labels': (0, ),
'num_clusters': self.settings.get('EventSelection', 'num_clusters'),
'min_cluster_size': self.settings.get('EventSelection', 'min_cluster_size'),
'classdef': cld})
es = UnsupervisedEventSelection(graph, **opts)
return es
def _convert_tracking_duration(self, option_name):
"""Converts a tracking duration according to the unit and the
mean time-lapse of the current position.
Returns number of frames.
"""
value = self.settings.get('EventSelection', option_name)
unit = self.settings.get('EventSelection', 'duration_unit')
# get mean and stddev for the current position
info = self.meta_data.get_timestamp_info(self.position)
if unit == TimeConverter.FRAMES or info is None:
result = value
elif unit == TimeConverter.MINUTES:
result = (value * 60.) / info[0]
elif unit == TimeConverter.SECONDS:
result = value / info[0]
else:
raise ValueError("Wrong unit '%s' specified." %unit)
return int(round(result))
def define_exp_features(self):
features = {}
for name in self.processing_channels:
region_features = {}
for region in MetaPluginManager().region_info.names[name.lower()]:
if name is self.MERGED_CHANNEL:
continue
# export all features extracted per regions
if self.settings.get('Output', 'events_export_all_features') or \
self.settings.get('Output', 'export_track_data'):
# None means all features
region_features[region] = None
# export selected features from settings
else:
region_features[region] = \
self.settings.get('General',
'%s_featureextraction_exportfeaturenames'
% name.lower())
features[name] = region_features
# special case for merged channel
if name is self.MERGED_CHANNEL:
mftrs = list()
for channel, region in self._channel_regions(name).iteritems():
if features[channel][region] is None:
mftrs = None
else:
for feature in features[channel][region]:
mftrs.append("_".join((channel, region, feature)))
region_features[self._all_channel_regions[name].values()] = mftrs
features[name] = region_features
return features
def export_object_counts(self):
fname = join(self._statistics_dir, 'P%s__object_counts.txt' % self.position)
ch_info = OrderedDict()
for name, clf in self.classifiers.iteritems():
names = clf.class_names.values()
colors = [clf.hexcolors[n] for n in names]
ch_info[name] = (clf.regions, names, colors)
# if no classifier has been loaded, no counts can be exported.
if len(ch_info) == 0:
return
self.timeholder.exportObjectCounts(fname, self.position, self.meta_data, ch_info)
pplot_ymax = \
self.settings.get('Output', 'export_object_counts_ylim_max')
self.timeholder.exportPopulationPlots(ch_info, self._plots_dir,
self.plate_id, self.position,
ymax=pplot_ymax)
def export_object_details(self):
fname = join(self._statistics_dir,
'P%s__object_details.txt' % self.position)
self.timeholder.exportObjectDetails(fname)
def export_image_names(self):
self.timeholder.exportImageFileNames(self._statistics_dir,
self.position,
self._imagecontainer._importer,
self.ch_mapping)
def export_full_tracks(self):
odir = join(self._statistics_dir, 'full')
exporter = EventExporter(self.meta_data)
exporter.full_tracks(self.timeholder, self._tes.visitor_data,
self.position, odir)
def export_graphviz(self, channel_name='Primary', region_name='primary'):
filename = 'tracking_graph___P%s.dot' %self.position
exporter = TrackExporter()
exporter.graphviz_dot(join(self._statistics_dir, filename),
self._tracker)
sample_holders = OrderedDict()
for frame in self.timeholder.keys():
channel = self.timeholder[frame][channel_name]
sample_holders[frame] = channel.get_region(region_name)
filename = join(self._statistics_dir, filename.replace('.dot', '_features.csv'))
exporter.tracking_data(filename, sample_holders)
def export_gallery_images(self):
for ch_name in self.processing_channels:
cutter_in = join(self._images_dir, ch_name.lower())
if not isdir(cutter_in):
self.logger.warning('directory not found (%s)' %cutter_in)
self.logger.warning('can not write the gallery images')
else:
cutter_out = join(self._gallery_dir, ch_name.lower())
self.logger.info("running Cutter for '%s'..." %ch_name)
image_size = \
self.settings.get('Output', 'events_gallery_image_size')
TrackGallery(self._tes.centers(),
cutter_in, cutter_out, self.position, size=image_size)
# FIXME: be careful here. normally only raw images are
# used for the cutter and can be deleted
# afterwards
shutil.rmtree(cutter_in, ignore_errors=True)
def export_tracks_hdf5(self):
"""Save tracking data to hdf file"""
self.logger.debug("--- serializing tracking start")
self.timeholder.serialize_tracking(self._tracker.graph)
self.logger.debug("--- serializing tracking ok")
def export_events(self):
"""Export and save event selection data"""
exporter = EventExporter(self.meta_data)
# writes to the event folder
odir = join(self._statistics_dir, "events")
exporter.track_features(self.timeholder, self._tes.visitor_data,
self.export_features, self.position, odir)
self.logger.debug("--- serializing events ok")
def export_events_hdf5(self):
# writes event data to hdf5
self.timeholder.serialize_events(self._tes)
def export_tc3(self):
t_mean = self.meta_data.get_timestamp_info(self.position)[0]
tu = TimeConverter(t_mean, TimeConverter.SECONDS)
increment = self.settings('General', 'frameincrement')
t_step = tu.sec2min(t_mean)*increment
nclusters = self.settings.get('EventSelection', 'num_clusters')
exporter = TC3Exporter(self._tes.tc3data, self._tc3_dir, nclusters,
t_step, TimeConverter.MINUTES, self.position)
exporter()
def export_classlabels(self):
"""Save classlabels of each object to the hdf file."""
# function works for supervised and unuspervised case
for channels in self.timeholder.itervalues():
for chname, classifier in self.classifiers.iteritems():
holder = channels[chname].get_region(classifier.regions)
if classifier.feature_names is None:
# special for unsupervised case
classifier.feature_names = holder.feature_names
self.timeholder.save_classlabels(channels[chname],
holder, classifier)
def __call__(self):
# include hdf5 file name in hdf5_options
# perhaps timeholder might be a good place to read out the options
# file does not have to exist to proceed
hdf5_fname = join(self._hdf5_dir, '%s.ch5' % self.position)
self.timeholder = TimeHolder(self.position, self._all_channel_regions,
hdf5_fname,
self.meta_data, self.settings,
self._frames,
self.plate_id,
**self._hdf_options)
self.settings.set_section('Tracking')
self.setup_classifiers()
# setup tracker
if self.settings('Processing', 'tracking'):
tropts = (self.settings('Tracking', 'tracking_maxobjectdistance'),
self.settings('Tracking', 'tracking_maxsplitobjects'),
self.settings('Tracking', 'tracking_maxtrackinggap'))
self._tracker = Tracker(*tropts)
stopwatch = StopWatch(start=True)
ca = CellAnalyzer(timeholder=self.timeholder,
position = self.position,
create_images = True,
binning_factor = 1,
detect_objects = self.settings('Processing',
'objectdetection'))
self.export_features = self.define_exp_features()
n_images = self._analyze(ca)
if n_images > 0:
# invoke event selection
if self.settings('Processing', 'eventselection') and \
self.settings('Processing', 'tracking'):
evchannel = self.settings('EventSelection', 'eventchannel')
region = self.classifiers[evchannel].regions
if self.settings('EventSelection', 'unsupervised_event_selection'):
graph = self._tracker.graph
elif evchannel != PrimaryChannel.NAME or \
region != self.settings("Tracking", "region"):
graph = self._tracker.clone_graph(self.timeholder,
evchannel,
region)
else:
graph = self._tracker.graph
self._tes = self.setup_eventselection(graph)
self.logger.debug("--- visitor start")
self._tes.find_events()
self.logger.debug("--- visitor ok")
if self.is_aborted():
return 0 # number of processed images
# save all the data of the position, no aborts from here on
# want all processed data saved
if self.settings('Output', 'export_object_counts') and \
self.settings('EventSelection', 'supervised_event_selection'):
# no object counts in case of unsupervised event selection
self.export_object_counts()
if self.settings('Output', 'export_object_details'):
self.export_object_details()
if self.settings('Output', 'export_file_names'):
self.export_image_names()
if self.settings('Processing', 'tracking'):
self.export_tracks_hdf5()
self.update_status({'text': 'export events...'})
if self.settings('Output', 'hdf5_include_events'):
self.export_events_hdf5()
if self.settings('Output', "export_events"):
if self.settings('Processing', 'eventselection'):
self.export_events()
if self.settings('EventSelection', 'unsupervised_event_selection'):
self.export_tc3()
if self.settings('Output', 'export_track_data'):
self.export_full_tracks()
if self.settings('Output', 'export_tracking_as_dot'):
self.export_graphviz(channel_name =PrimaryChannel.NAME,\
region_name =self._all_channel_regions[PrimaryChannel.NAME][PrimaryChannel.NAME])
self.export_classlabels()
self.update_status({'text': 'export events...',
'max': 1,
'progress': 1})
# remove all features from all channels to free memory
# for the generation of gallery images
self.timeholder.purge_features()
if self.settings.get('Output', 'events_export_gallery_images') and \
self.settings.get('Processing', 'eventselection'):
self.export_gallery_images()
try:
intval = stopwatch.stop()/n_images*1000
except ZeroDivisionError:
pass
else:
self.logger.info(" - %d image sets analyzed, %3d ms per image set" %
(n_images, intval))
self.touch_finished()
self.clear()
return n_images
@property
def hdf5_filename(self):
return self.timeholder.hdf5_filename
def touch_finished(self, times=None):
"""Writes an empty file to mark this position as finished"""
fname = join(self._finished_dir, '%s__finished.txt' % self.position)
with open(fname, "w") as f:
os.utime(fname, times)
def clear(self):
# closes
if self.timeholder is not None:
self.timeholder.close_all()
# close and remove handlers from logging object
self.close()
def _analyze(self, cellanalyzer):
super(PositionAnalyzer, self)._analyze()
n_images = 0
stopwatch = StopWatch(start=True)
crd = Coordinate(self.plate_id, self.position,
self._frames, list(set(self.ch_mapping.values())))
minimal_effort = self.settings.get('Output', 'minimal_effort') and self.settings.get('Output', 'hdf5_reuse')
for frame, channels in self._imagecontainer( \
crd, interrupt_channel=True, interrupt_zslice=True):
if self.is_aborted():
self.clear()
return 0
else:
txt = 'T %d (%d/%d)' %(frame, self._frames.index(frame)+1,
len(self._frames))
self.update_status({'progress': self._frames.index(frame)+1,
'text': txt,
'interval': stopwatch.interim()})
stopwatch.reset(start=True)
cellanalyzer.initTimepoint(frame)
self.register_channels(cellanalyzer, channels)
cellanalyzer.process()
self.logger.info(" - Frame %d, cellanalyzer.process (ms): %3d" \
%(frame, stopwatch.interval()*1000))
n_images += 1
images = []
if self.settings('Processing', 'tracking'):
region = self.settings('Tracking', 'region')
samples = self.timeholder[frame][PrimaryChannel.NAME].get_region(region)
self._tracker.track_next_frame(frame, samples)
if self.settings('Tracking', 'tracking_visualization'):
size = cellanalyzer.getImageSize(PrimaryChannel.NAME)
nframes = self.settings('Tracking', 'tracking_visualize_track_length')
radius = self.settings('Tracking', 'tracking_centroid_radius')
img_conn, img_split = self._tracker.render_tracks(
frame, size, nframes, radius)
images += [(img_conn, '#FFFF00', 1.0),
(img_split, '#00FFFF', 1.0)]
self.logger.info(" - Frame %d, Tracking (ms): %3d" \
%(frame, stopwatch.interval()*1000))
# can't cluster on a per frame basis
if self.settings("EventSelection", "supervised_event_selection"):
for clf in self.classifiers.itervalues():
cellanalyzer.classify_objects(clf)
self.logger.info(" - Frame %d, Classification (ms): %3d" \
% (frame, stopwatch.interval()*1000))
self.settings.set_section('General')
# want emit all images at once
if not minimal_effort:
imgs = {}
imgs.update(self.render_classification_images(cellanalyzer, images, frame))
imgs.update(self.render_contour_images(cellanalyzer, images, frame))
msg = 'PL %s - P %s - T %05d' %(self.plate_id, self.position, frame)
self.set_image(imgs, msg, 50)
if self.settings('Output', 'rendering_channel_gallery'):
self.render_channel_gallery(cellanalyzer, frame)
if self.settings('Output', 'rendering_labels_discwrite'):
cellanalyzer.exportLabelImages(self._labels_dir)
cellanalyzer.purge(features=self.export_features)
self.logger.info(" - Frame %d, rest (ms): %3d" \
%(frame, stopwatch.interval()*1000))
self.logger.info(" - Frame %d, duration (ms): %3d" \
%(frame, stopwatch.interim()*1000))
return n_images
def render_channel_gallery(self, cellanalyzer, frame):
for channel in cellanalyzer.virtual_channels.itervalues():
chgal = ChannelGallery(channel, frame, self._channel_gallery_dir)
chgal.make_gallery()
def render_contour_images(self, ca, images, frame):
images_ = dict()
for region, render_par in self.settings.get2('rendering').iteritems():
out_dir = join(self._images_dir, region)
write = self.settings('Output', 'rendering_contours_discwrite')
if region not in self.CHANNELS.keys():
img, _ = ca.render(out_dir, dctRenderInfo=render_par,
writeToDisc=write, images=images)
images_[region] = img
# gallery images are treated differenty
else:
ca.render(out_dir, dctRenderInfo=render_par, writeToDisc=True)
return images_
def render_classification_images(self, cellanalyzer, images, frame):
images_ = dict()
for region, render_par in self.settings.get2('rendering_class').iteritems():
out_images = join(self._images_dir, region)
write = self.settings('Output', 'rendering_class_discwrite')
image, _ = cellanalyzer.render(out_images,
dctRenderInfo=render_par,
writeToDisc=write,
images=images)
images_[region] = image
return images_
def __call__(self):
# include hdf5 file name in hdf5_options
# perhaps timeholder might be a good placke to read out the options
# fils must not exist to proceed
hdf5_fname = join(self._hdf5_dir, '%s.ch5' % self.position)
self.timeholder = TimeHolder(self.position, self._all_channel_regions,
hdf5_fname,
self.meta_data, self.settings,
self._frames,
self.plate_id,
**self._hdf_options)
self.settings.set_section('Tracking')
# setup tracker
if self.settings.get('Processing', 'tracking'):
region = self.settings.get('Tracking', 'tracking_regionname')
tropts = (self.settings.get('Tracking', 'tracking_maxobjectdistance'),
self.settings.get('Tracking', 'tracking_maxsplitobjects'),
self.settings.get('Tracking', 'tracking_maxtrackinggap'))
self._tracker = Tracker(*tropts)
self._tes = EventSelection(self._tracker.graph, **self._es_options)
stopwatch = StopWatch(start=True)
ca = CellAnalyzer(timeholder=self.timeholder,
position = self.position,
create_images = True,
binning_factor = 1,
detect_objects = self.settings.get('Processing',
'objectdetection'))
self.setup_classifiers()
self.export_features = self.define_exp_features()
n_images = self._analyze(ca)
if n_images > 0:
# invoke event selection
if self.settings.get('Processing', 'tracking_synchronize_trajectories') and \
self.settings.get('Processing', 'tracking'):
self.logger.debug("--- visitor start")
self._tes.find_events()
self.logger.debug("--- visitor ok")
if self.is_aborted():
return 0 # number of processed images
# save all the data of the position, no aborts from here on
# want all processed data saved
if self.settings.get('Output', 'export_object_counts'):
self.export_object_counts()
if self.settings.get('Output', 'export_object_details'):
self.export_object_details()
if self.settings.get('Output', 'export_file_names'):
self.export_image_names()
if self.settings.get('Processing', 'tracking'):
self.export_tracks_hdf5()
self.update_status({'text': 'export events...'})
if self.settings.get('Processing', 'tracking_synchronize_trajectories'):
self.export_events()
if self.settings.get('Output', 'export_track_data'):
self.export_full_tracks()
if self.settings.get('Output', 'export_tracking_as_dot'):
self.export_graphviz()
self.update_status({'text': 'export events...',
'max': 1,
'progress': 1})
# remove all features from all channels to free memory
# for the generation of gallery images
self.timeholder.purge_features()
if self.settings.get('Output', 'events_export_gallery_images'):
self.export_gallery_images()
try:
intval = stopwatch.stop()/n_images*1000
except ZeroDivisionError:
pass
else:
self.logger.info(" - %d image sets analyzed, %3d ms per image set" %
(n_images, intval))
self.touch_finished()
# self.clear()
return n_images
def __call__(self):
# include hdf5 file name in hdf5_options
# perhaps timeholder might be a good place to read out the options
# file does not have to exist to proceed
hdf5_fname = join(self._hdf5_dir, '%s.ch5' % self.position)
self.timeholder = TimeHolder(self.position, self._all_channel_regions,
hdf5_fname,
self.meta_data, self.settings,
self._frames,
self.plate_id,
**self._hdf_options)
self.settings.set_section('Tracking')
self.setup_classifiers()
# setup tracker
if self.settings('Processing', 'tracking'):
tropts = (self.settings('Tracking', 'tracking_maxobjectdistance'),
self.settings('Tracking', 'tracking_maxsplitobjects'),
self.settings('Tracking', 'tracking_maxtrackinggap'))
self._tracker = Tracker(*tropts)
stopwatch = StopWatch(start=True)
ca = CellAnalyzer(timeholder=self.timeholder,
position = self.position,
create_images = True,
binning_factor = 1,
detect_objects = self.settings('Processing',
'objectdetection'))
self.export_features = self.define_exp_features()
n_images = self._analyze(ca)
if n_images > 0:
# invoke event selection
if self.settings('Processing', 'eventselection') and \
self.settings('Processing', 'tracking'):
evchannel = self.settings('EventSelection', 'eventchannel')
region = self.classifiers[evchannel].regions
if self.settings('EventSelection', 'unsupervised_event_selection'):
graph = self._tracker.graph
elif evchannel != PrimaryChannel.NAME or \
region != self.settings("Tracking", "region"):
graph = self._tracker.clone_graph(self.timeholder,
evchannel,
region)
else:
graph = self._tracker.graph
self._tes = self.setup_eventselection(graph)
self.logger.debug("--- visitor start")
self._tes.find_events()
self.logger.debug("--- visitor ok")
if self.is_aborted():
return 0 # number of processed images
# save all the data of the position, no aborts from here on
# want all processed data saved
if self.settings('Output', 'export_object_counts') and \
self.settings('EventSelection', 'supervised_event_selection'):
# no object counts in case of unsupervised event selection
self.export_object_counts()
if self.settings('Output', 'export_object_details'):
self.export_object_details()
if self.settings('Output', 'export_file_names'):
self.export_image_names()
if self.settings('Processing', 'tracking'):
self.export_tracks_hdf5()
self.update_status({'text': 'export events...'})
if self.settings('Output', 'hdf5_include_events'):
self.export_events_hdf5()
if self.settings('Output', "export_events"):
if self.settings('Processing', 'eventselection'):
self.export_events()
if self.settings('EventSelection', 'unsupervised_event_selection'):
self.export_tc3()
if self.settings('Output', 'export_track_data'):
self.export_full_tracks()
if self.settings('Output', 'export_tracking_as_dot'):
self.export_graphviz(channel_name =PrimaryChannel.NAME,\
region_name =self._all_channel_regions[PrimaryChannel.NAME][PrimaryChannel.NAME])
self.export_classlabels()
self.update_status({'text': 'export events...',
'max': 1,
'progress': 1})
# remove all features from all channels to free memory
# for the generation of gallery images
self.timeholder.purge_features()
if self.settings.get('Output', 'events_export_gallery_images') and \
self.settings.get('Processing', 'eventselection'):
self.export_gallery_images()
try:
intval = stopwatch.stop()/n_images*1000
except ZeroDivisionError:
pass
else:
self.logger.info(" - %d image sets analyzed, %3d ms per image set" %
(n_images, intval))
self.touch_finished()
self.clear()
return n_images